Meta-Analysis Finds Combination Cream Plus Tranexamic Acid Effective for Melasma

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Fri, 06/21/2024 - 16:27

 

TOPLINE:

A meta-analysis showed that the use of oral tranexamic acid along with the standard triple combination cream (TCC) reduces melasma severity and recurrence in patients with melasma, without increasing toxicity.

METHODOLOGY:

  • Current treatments for melasma focus on inducing remission and preventing relapse. Tranexamic acid, an antifibrinolytic drug, has shown promise in recent studies, but its optimal use, either alone or as an adjunct to TCC, remains unclear.
  • Researchers conducted a meta-analysis of four randomized controlled trials patients that compared oral tranexamic acid plus TCC (hydroquinone, retinoic acid, and hydrocortisone) and TCC alone in 480 patients with melasma, divided almost evenly into the two treatment groups.
  • The main outcome was the change in the Melasma Severity Area Index (MASI) score and recurrence rate from baseline.

TAKEAWAY:

  • Patients treated with oral tranexamic acid plus TCC showed a greater reduction in MASI scores compared with those who received TCC alone (mean difference, −3.10; = .03).
  • The recurrence rate of melasma was significantly lower in the tranexamic acid plus TCC group (risk ratio [RR], 0.28; P < .001).
  • There was no significant difference in the incidences of erythema (RR, 0.63; P = .147) and burning (RR, 0.59; P = .131).

IN PRACTICE:

“Evidence indicates that oral tranexamic acid confers clinical benefits, contributing to the enhancement of treatment outcomes in melasma when used in conjunction with TCC therapy,” and results are promising with regards to minimizing recurrence, the authors concluded.

SOURCE:

The study was led by Ocílio Ribeiro Gonçalves, MS, of the Federal University of Piauí, Teresina, Brazil, and was published online on June 8, 2024, in Clinical and Experimental Dermatology.

LIMITATIONS:

There was heterogeneity across studies, including different methods of administration, treatment protocols (including dosage), and timing of treatment.

DISCLOSURES:

The study reported receiving no funding. The authors declared no conflicts of interest.
 

A version of this article appeared on Medscape.com.

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TOPLINE:

A meta-analysis showed that the use of oral tranexamic acid along with the standard triple combination cream (TCC) reduces melasma severity and recurrence in patients with melasma, without increasing toxicity.

METHODOLOGY:

  • Current treatments for melasma focus on inducing remission and preventing relapse. Tranexamic acid, an antifibrinolytic drug, has shown promise in recent studies, but its optimal use, either alone or as an adjunct to TCC, remains unclear.
  • Researchers conducted a meta-analysis of four randomized controlled trials patients that compared oral tranexamic acid plus TCC (hydroquinone, retinoic acid, and hydrocortisone) and TCC alone in 480 patients with melasma, divided almost evenly into the two treatment groups.
  • The main outcome was the change in the Melasma Severity Area Index (MASI) score and recurrence rate from baseline.

TAKEAWAY:

  • Patients treated with oral tranexamic acid plus TCC showed a greater reduction in MASI scores compared with those who received TCC alone (mean difference, −3.10; = .03).
  • The recurrence rate of melasma was significantly lower in the tranexamic acid plus TCC group (risk ratio [RR], 0.28; P < .001).
  • There was no significant difference in the incidences of erythema (RR, 0.63; P = .147) and burning (RR, 0.59; P = .131).

IN PRACTICE:

“Evidence indicates that oral tranexamic acid confers clinical benefits, contributing to the enhancement of treatment outcomes in melasma when used in conjunction with TCC therapy,” and results are promising with regards to minimizing recurrence, the authors concluded.

SOURCE:

The study was led by Ocílio Ribeiro Gonçalves, MS, of the Federal University of Piauí, Teresina, Brazil, and was published online on June 8, 2024, in Clinical and Experimental Dermatology.

LIMITATIONS:

There was heterogeneity across studies, including different methods of administration, treatment protocols (including dosage), and timing of treatment.

DISCLOSURES:

The study reported receiving no funding. The authors declared no conflicts of interest.
 

A version of this article appeared on Medscape.com.

 

TOPLINE:

A meta-analysis showed that the use of oral tranexamic acid along with the standard triple combination cream (TCC) reduces melasma severity and recurrence in patients with melasma, without increasing toxicity.

METHODOLOGY:

  • Current treatments for melasma focus on inducing remission and preventing relapse. Tranexamic acid, an antifibrinolytic drug, has shown promise in recent studies, but its optimal use, either alone or as an adjunct to TCC, remains unclear.
  • Researchers conducted a meta-analysis of four randomized controlled trials patients that compared oral tranexamic acid plus TCC (hydroquinone, retinoic acid, and hydrocortisone) and TCC alone in 480 patients with melasma, divided almost evenly into the two treatment groups.
  • The main outcome was the change in the Melasma Severity Area Index (MASI) score and recurrence rate from baseline.

TAKEAWAY:

  • Patients treated with oral tranexamic acid plus TCC showed a greater reduction in MASI scores compared with those who received TCC alone (mean difference, −3.10; = .03).
  • The recurrence rate of melasma was significantly lower in the tranexamic acid plus TCC group (risk ratio [RR], 0.28; P < .001).
  • There was no significant difference in the incidences of erythema (RR, 0.63; P = .147) and burning (RR, 0.59; P = .131).

IN PRACTICE:

“Evidence indicates that oral tranexamic acid confers clinical benefits, contributing to the enhancement of treatment outcomes in melasma when used in conjunction with TCC therapy,” and results are promising with regards to minimizing recurrence, the authors concluded.

SOURCE:

The study was led by Ocílio Ribeiro Gonçalves, MS, of the Federal University of Piauí, Teresina, Brazil, and was published online on June 8, 2024, in Clinical and Experimental Dermatology.

LIMITATIONS:

There was heterogeneity across studies, including different methods of administration, treatment protocols (including dosage), and timing of treatment.

DISCLOSURES:

The study reported receiving no funding. The authors declared no conflicts of interest.
 

A version of this article appeared on Medscape.com.

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VEXAS Syndrome: Study Highlights Cutaneous Symptoms

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Changed
Thu, 06/20/2024 - 13:06

Skin manifestations are common in the vacuoles, E1 enzyme, X-linked, autoinflammatory, somatic (VEXAS) syndrome and present early in the disease course. Additionally, the most common histologic findings include leukocytoclastic vasculitis, neutrophilic dermatosis, and perivascular dermatitis; different variants in the UBA1 gene are associated with specific skin manifestations.

Those are key findings from a cohort study of 112 patients with VEXAS published online in JAMA Dermatology. The study, conducted by researchers at the National Institutes of Health (NIH) and several other institutions, aimed to define the spectrum of cutaneous manifestations in VEXAS in association with genetic, histologic, and other clinical findings.

Edward W. Cowen, MD, MHSc
Dr. Edward W. Cowen

First described in 2020, VEXAS syndrome is an adult-onset multisystem disease that can pose a diagnostic challenge to clinicians, the study’s corresponding author, Edward W. Cowen, MD, MHSc, of the dermatology branch at the National Institute of Arthritis and Musculoskeletal and Skin Diseases (NIAMS), said in an interview. The disease is caused by pathogenic variants in the UBA1 gene, located on the X chromosome. Affected individuals exhibit a wide range of manifestations, including cytopenia/myelodysplasia, multiorgan systemic inflammation, and cutaneous involvement.

“Patients may present to a variety of disease specialists depending on their symptoms and providers may not immediately consider a genetic etiology in an older individual,” Dr. Cowen said in an interview. “Although skin involvement occurs in more than 80% of patients, it is pleomorphic and may resemble a variety of other conditions such as vasculitis and Sweet syndrome.”

To better understand the cutaneous manifestations of VEXAS syndrome, the researchers evaluated data from 112 patients with VEXAS-defining genetic variants in the UBA1 gene between 2019 and 2023. Of the 112 patients, 73 underwent medical record review only, and 39 were prospectively evaluated at NIH. All but one of the patients were men, 94% were White individuals, and their mean age was 64 years. Skin involvement occurred in 83% of cases and was the most common presenting feature of VEXAS in 61% of cases.

Of the 64 histopathologic reports available from 60 patients, the main skin histopathologic findings were leukocytoclastic vasculitis in 23 patients (36%), neutrophilic dermatosis in 22 patients (34%), and perivascular dermatitis in 19 patients (30%). According to Dr. Cowen, one key histologic finding was a distinct pattern of “histiocytoid” dermal neutrophilic inflammation, which was present in 13 of 15 specimens (86%) that underwent central re-review. “This pattern can occasionally also be seen in patients with Sweet syndrome, unrelated to VEXAS, but was a hallmark feature found in the majority of skin biopsies of patients with VEXAS,” he said.

Image courtesy of JAMA Network
Examples of skin manifestations of VEXAS syndrome

“Together with another pathologic finding, leukocytoclasia, these features can be useful clues to alert the pathologist to a potential diagnosis of VEXAS. This myeloid predominant pattern of skin inflammation was also most strongly associated with the leucine pathogenic variant of the UBA1 gene.” In contrast, cutaneous vasculitis was most strongly associated with the valine pathogenic variant of UBA1. “This is important because the valine variant has been previously independently linked to decreased survival,” he said.

In findings related to pathogenic genetic variants, the researchers observed that the p.Met41Leu variant was most frequently associated with neutrophilic dermal infiltrates in 14 of 17 patients (82%) with this variant and often resembled histiocytoid Sweet syndrome. In addition, the p.Met41Val variant was associated with vasculitic lesions in 11 of 20 patients (55%) with this variant and with a mixed leukocytic infiltrate in 17 of these 20 patients (85%).
 

 

 

Treatment Outcomes

In the realm of therapies, skin manifestations improved in 67 of 73 patients (92%) treated with oral prednisone, while treatment with the interleukin-1 receptor antagonist anakinra improved cutaneous disease in 9 of the 16 (56%) who received it. However, 12 (75%) of those who received anakinra developed severe injection-site reactions, including ulceration in two patients and abscess formation in one patient.

Dr. Cowen noted that VEXAS is associated with high mortality (22% in this cohort), and a high degree of suspicion is required to diagnose patients with VEXAS before significant end organ damage has occurred. “This diagnosis should be considered in all older male patients who present with neutrophilic dermatosis — particularly histiocytoid Sweet syndrome, vasculitis, or leukocytoclasia without vasculitis. Patients who appear to have isolated skin involvement may have cytopenias and acute phase reactants. Therefore, complete blood count with differential and ESR and CRP should be considered to investigate for macrocytosis, cytopenias, and systemic inflammation.”

He acknowledged certain limitations of the study, including the fact that many patients were first evaluated at the NIH after having disease symptoms for many months or years. “It is possible that patients with VEXAS referred to the NIH, either for genetic testing or in person evaluation, represent a population with more aggressive disease.”



Christine Ko, MD, professor of dermatology and pathology at Yale University, New Haven, Connecticut, who was asked to comment on the study, emphasized the importance of the UBA1 mutation in the diagnosis of this complex syndrome. “Dermatologists should be aware of VEXAS syndrome as the majority of patients present with skin lesions, which can range from urticarial to Sweet syndrome–like to palpable purpura,” Dr. Ko said.

“Chondritis and periorbital edema, sometimes unilateral, are also associated. Histopathologic clues include a predominantly histiocytoid infiltrate,” she noted. In addition, “the prominent myxoid stroma around blood vessels and adnexal structures as a clue to VEXAS syndrome surprised me; I had not read that before.”

The study was supported by the Intramural Research Program of NIAMS. One of the study authors reported personal fees from Alexion, Novartis, and Sobi outside of the submitted work. No other disclosures were reported. Dr. Ko reported having no disclosures.

A version of this article appeared on Medscape.com .

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Skin manifestations are common in the vacuoles, E1 enzyme, X-linked, autoinflammatory, somatic (VEXAS) syndrome and present early in the disease course. Additionally, the most common histologic findings include leukocytoclastic vasculitis, neutrophilic dermatosis, and perivascular dermatitis; different variants in the UBA1 gene are associated with specific skin manifestations.

Those are key findings from a cohort study of 112 patients with VEXAS published online in JAMA Dermatology. The study, conducted by researchers at the National Institutes of Health (NIH) and several other institutions, aimed to define the spectrum of cutaneous manifestations in VEXAS in association with genetic, histologic, and other clinical findings.

Edward W. Cowen, MD, MHSc
Dr. Edward W. Cowen

First described in 2020, VEXAS syndrome is an adult-onset multisystem disease that can pose a diagnostic challenge to clinicians, the study’s corresponding author, Edward W. Cowen, MD, MHSc, of the dermatology branch at the National Institute of Arthritis and Musculoskeletal and Skin Diseases (NIAMS), said in an interview. The disease is caused by pathogenic variants in the UBA1 gene, located on the X chromosome. Affected individuals exhibit a wide range of manifestations, including cytopenia/myelodysplasia, multiorgan systemic inflammation, and cutaneous involvement.

“Patients may present to a variety of disease specialists depending on their symptoms and providers may not immediately consider a genetic etiology in an older individual,” Dr. Cowen said in an interview. “Although skin involvement occurs in more than 80% of patients, it is pleomorphic and may resemble a variety of other conditions such as vasculitis and Sweet syndrome.”

To better understand the cutaneous manifestations of VEXAS syndrome, the researchers evaluated data from 112 patients with VEXAS-defining genetic variants in the UBA1 gene between 2019 and 2023. Of the 112 patients, 73 underwent medical record review only, and 39 were prospectively evaluated at NIH. All but one of the patients were men, 94% were White individuals, and their mean age was 64 years. Skin involvement occurred in 83% of cases and was the most common presenting feature of VEXAS in 61% of cases.

Of the 64 histopathologic reports available from 60 patients, the main skin histopathologic findings were leukocytoclastic vasculitis in 23 patients (36%), neutrophilic dermatosis in 22 patients (34%), and perivascular dermatitis in 19 patients (30%). According to Dr. Cowen, one key histologic finding was a distinct pattern of “histiocytoid” dermal neutrophilic inflammation, which was present in 13 of 15 specimens (86%) that underwent central re-review. “This pattern can occasionally also be seen in patients with Sweet syndrome, unrelated to VEXAS, but was a hallmark feature found in the majority of skin biopsies of patients with VEXAS,” he said.

Image courtesy of JAMA Network
Examples of skin manifestations of VEXAS syndrome

“Together with another pathologic finding, leukocytoclasia, these features can be useful clues to alert the pathologist to a potential diagnosis of VEXAS. This myeloid predominant pattern of skin inflammation was also most strongly associated with the leucine pathogenic variant of the UBA1 gene.” In contrast, cutaneous vasculitis was most strongly associated with the valine pathogenic variant of UBA1. “This is important because the valine variant has been previously independently linked to decreased survival,” he said.

In findings related to pathogenic genetic variants, the researchers observed that the p.Met41Leu variant was most frequently associated with neutrophilic dermal infiltrates in 14 of 17 patients (82%) with this variant and often resembled histiocytoid Sweet syndrome. In addition, the p.Met41Val variant was associated with vasculitic lesions in 11 of 20 patients (55%) with this variant and with a mixed leukocytic infiltrate in 17 of these 20 patients (85%).
 

 

 

Treatment Outcomes

In the realm of therapies, skin manifestations improved in 67 of 73 patients (92%) treated with oral prednisone, while treatment with the interleukin-1 receptor antagonist anakinra improved cutaneous disease in 9 of the 16 (56%) who received it. However, 12 (75%) of those who received anakinra developed severe injection-site reactions, including ulceration in two patients and abscess formation in one patient.

Dr. Cowen noted that VEXAS is associated with high mortality (22% in this cohort), and a high degree of suspicion is required to diagnose patients with VEXAS before significant end organ damage has occurred. “This diagnosis should be considered in all older male patients who present with neutrophilic dermatosis — particularly histiocytoid Sweet syndrome, vasculitis, or leukocytoclasia without vasculitis. Patients who appear to have isolated skin involvement may have cytopenias and acute phase reactants. Therefore, complete blood count with differential and ESR and CRP should be considered to investigate for macrocytosis, cytopenias, and systemic inflammation.”

He acknowledged certain limitations of the study, including the fact that many patients were first evaluated at the NIH after having disease symptoms for many months or years. “It is possible that patients with VEXAS referred to the NIH, either for genetic testing or in person evaluation, represent a population with more aggressive disease.”



Christine Ko, MD, professor of dermatology and pathology at Yale University, New Haven, Connecticut, who was asked to comment on the study, emphasized the importance of the UBA1 mutation in the diagnosis of this complex syndrome. “Dermatologists should be aware of VEXAS syndrome as the majority of patients present with skin lesions, which can range from urticarial to Sweet syndrome–like to palpable purpura,” Dr. Ko said.

“Chondritis and periorbital edema, sometimes unilateral, are also associated. Histopathologic clues include a predominantly histiocytoid infiltrate,” she noted. In addition, “the prominent myxoid stroma around blood vessels and adnexal structures as a clue to VEXAS syndrome surprised me; I had not read that before.”

The study was supported by the Intramural Research Program of NIAMS. One of the study authors reported personal fees from Alexion, Novartis, and Sobi outside of the submitted work. No other disclosures were reported. Dr. Ko reported having no disclosures.

A version of this article appeared on Medscape.com .

Skin manifestations are common in the vacuoles, E1 enzyme, X-linked, autoinflammatory, somatic (VEXAS) syndrome and present early in the disease course. Additionally, the most common histologic findings include leukocytoclastic vasculitis, neutrophilic dermatosis, and perivascular dermatitis; different variants in the UBA1 gene are associated with specific skin manifestations.

Those are key findings from a cohort study of 112 patients with VEXAS published online in JAMA Dermatology. The study, conducted by researchers at the National Institutes of Health (NIH) and several other institutions, aimed to define the spectrum of cutaneous manifestations in VEXAS in association with genetic, histologic, and other clinical findings.

Edward W. Cowen, MD, MHSc
Dr. Edward W. Cowen

First described in 2020, VEXAS syndrome is an adult-onset multisystem disease that can pose a diagnostic challenge to clinicians, the study’s corresponding author, Edward W. Cowen, MD, MHSc, of the dermatology branch at the National Institute of Arthritis and Musculoskeletal and Skin Diseases (NIAMS), said in an interview. The disease is caused by pathogenic variants in the UBA1 gene, located on the X chromosome. Affected individuals exhibit a wide range of manifestations, including cytopenia/myelodysplasia, multiorgan systemic inflammation, and cutaneous involvement.

“Patients may present to a variety of disease specialists depending on their symptoms and providers may not immediately consider a genetic etiology in an older individual,” Dr. Cowen said in an interview. “Although skin involvement occurs in more than 80% of patients, it is pleomorphic and may resemble a variety of other conditions such as vasculitis and Sweet syndrome.”

To better understand the cutaneous manifestations of VEXAS syndrome, the researchers evaluated data from 112 patients with VEXAS-defining genetic variants in the UBA1 gene between 2019 and 2023. Of the 112 patients, 73 underwent medical record review only, and 39 were prospectively evaluated at NIH. All but one of the patients were men, 94% were White individuals, and their mean age was 64 years. Skin involvement occurred in 83% of cases and was the most common presenting feature of VEXAS in 61% of cases.

Of the 64 histopathologic reports available from 60 patients, the main skin histopathologic findings were leukocytoclastic vasculitis in 23 patients (36%), neutrophilic dermatosis in 22 patients (34%), and perivascular dermatitis in 19 patients (30%). According to Dr. Cowen, one key histologic finding was a distinct pattern of “histiocytoid” dermal neutrophilic inflammation, which was present in 13 of 15 specimens (86%) that underwent central re-review. “This pattern can occasionally also be seen in patients with Sweet syndrome, unrelated to VEXAS, but was a hallmark feature found in the majority of skin biopsies of patients with VEXAS,” he said.

Image courtesy of JAMA Network
Examples of skin manifestations of VEXAS syndrome

“Together with another pathologic finding, leukocytoclasia, these features can be useful clues to alert the pathologist to a potential diagnosis of VEXAS. This myeloid predominant pattern of skin inflammation was also most strongly associated with the leucine pathogenic variant of the UBA1 gene.” In contrast, cutaneous vasculitis was most strongly associated with the valine pathogenic variant of UBA1. “This is important because the valine variant has been previously independently linked to decreased survival,” he said.

In findings related to pathogenic genetic variants, the researchers observed that the p.Met41Leu variant was most frequently associated with neutrophilic dermal infiltrates in 14 of 17 patients (82%) with this variant and often resembled histiocytoid Sweet syndrome. In addition, the p.Met41Val variant was associated with vasculitic lesions in 11 of 20 patients (55%) with this variant and with a mixed leukocytic infiltrate in 17 of these 20 patients (85%).
 

 

 

Treatment Outcomes

In the realm of therapies, skin manifestations improved in 67 of 73 patients (92%) treated with oral prednisone, while treatment with the interleukin-1 receptor antagonist anakinra improved cutaneous disease in 9 of the 16 (56%) who received it. However, 12 (75%) of those who received anakinra developed severe injection-site reactions, including ulceration in two patients and abscess formation in one patient.

Dr. Cowen noted that VEXAS is associated with high mortality (22% in this cohort), and a high degree of suspicion is required to diagnose patients with VEXAS before significant end organ damage has occurred. “This diagnosis should be considered in all older male patients who present with neutrophilic dermatosis — particularly histiocytoid Sweet syndrome, vasculitis, or leukocytoclasia without vasculitis. Patients who appear to have isolated skin involvement may have cytopenias and acute phase reactants. Therefore, complete blood count with differential and ESR and CRP should be considered to investigate for macrocytosis, cytopenias, and systemic inflammation.”

He acknowledged certain limitations of the study, including the fact that many patients were first evaluated at the NIH after having disease symptoms for many months or years. “It is possible that patients with VEXAS referred to the NIH, either for genetic testing or in person evaluation, represent a population with more aggressive disease.”



Christine Ko, MD, professor of dermatology and pathology at Yale University, New Haven, Connecticut, who was asked to comment on the study, emphasized the importance of the UBA1 mutation in the diagnosis of this complex syndrome. “Dermatologists should be aware of VEXAS syndrome as the majority of patients present with skin lesions, which can range from urticarial to Sweet syndrome–like to palpable purpura,” Dr. Ko said.

“Chondritis and periorbital edema, sometimes unilateral, are also associated. Histopathologic clues include a predominantly histiocytoid infiltrate,” she noted. In addition, “the prominent myxoid stroma around blood vessels and adnexal structures as a clue to VEXAS syndrome surprised me; I had not read that before.”

The study was supported by the Intramural Research Program of NIAMS. One of the study authors reported personal fees from Alexion, Novartis, and Sobi outside of the submitted work. No other disclosures were reported. Dr. Ko reported having no disclosures.

A version of this article appeared on Medscape.com .

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Pruritic, violaceous papules in a patient with renal cell carcinoma

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Changed
Thu, 06/20/2024 - 16:10

Pembrolizumab (Keytruda) is a programmed cell death protein 1 (PD-1) blocking antibody used to treat different malignancies including melanoma, non–small cell lung cancer, and other advanced solid tumors and hematologic malignancies. Various dermatological side effects have been associated with pembrolizumab, including pruritus, bullous pemphigoid, vitiligo, lichenoid skin reactions, psoriasis, and rarely, life-threatening conditions like Steven-Johnson syndrome and drug rash with eosinophilia and systemic symptoms (DRESS).

Lichen planus-like adverse drug reactions, as seen in this patient, are also referred to as lichenoid drug eruption or drug-induced lichen planus. This cutaneous reaction is one of the more rare side effects of pembrolizumab. It should be noted that in lichenoid reactions, keratinocytes expressing PD-L1 are particularly affected, leading to a dense CD4/CD8 positive lymphocytic infiltration in the basal layer, necrosis of keratinocytes, acanthosis, and hypergranulosis. Subsequently, the cutaneous adverse reaction is a target effect of the PD-1/PD-L1 pathway and not a general hypersensitivity reaction. Clinically, both lichen planus and lichenoid drug eruptions exhibit erythematous papules and plaques. Lichenoid drug eruptions, however, can be scaly, pruritic, and heal with more hyperpigmentation.

A skin biopsy revealed irregular epidermal hyperplasia with jagged rete ridges. Within the dermis, there was a lichenoid inflammatory cell infiltrate obscuring the dermal-epidermal junction. The inflammatory cell infiltrate contained lymphocytes, histiocytes, and eosinophils. A diagnosis of a lichen planus-like adverse drug reaction to pembrolizumab was favored.

If the reaction is mild, topical corticosteroids and oral antihistamines can help with the drug-induced lichen planus. For more severe cases, systemic steroids can be given to help ease the reaction. Physicians should be aware of potential adverse drug effects that can mimic other medical conditions.

Dr. Donna Bilu Martin

The case and photo were submitted by Ms. Towe, Nova Southeastern University College of Osteopathic Medicine, Davie, Florida, and Dr. Berke, Three Rivers Dermatology, Coraopolis, Pennsylvania. The column was edited by Donna Bilu Martin, MD.
 

Dr. Bilu Martin is a board-certified dermatologist in private practice at Premier Dermatology, MD, in Aventura, Fla. More diagnostic cases are available at mdedge.com/dermatology. To submit a case for possible publication, send an email to [email protected].

References

Bansal A et al. Indian Dermatol Online J. 2023 Apr 4;14(3):391-4. doi: 10.4103/idoj.idoj_377_22.

Sethi A, Raj M. Cureus. 2021 Mar 8;13(3):e13768. doi: 10.7759/cureus.13768.

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Pembrolizumab (Keytruda) is a programmed cell death protein 1 (PD-1) blocking antibody used to treat different malignancies including melanoma, non–small cell lung cancer, and other advanced solid tumors and hematologic malignancies. Various dermatological side effects have been associated with pembrolizumab, including pruritus, bullous pemphigoid, vitiligo, lichenoid skin reactions, psoriasis, and rarely, life-threatening conditions like Steven-Johnson syndrome and drug rash with eosinophilia and systemic symptoms (DRESS).

Lichen planus-like adverse drug reactions, as seen in this patient, are also referred to as lichenoid drug eruption or drug-induced lichen planus. This cutaneous reaction is one of the more rare side effects of pembrolizumab. It should be noted that in lichenoid reactions, keratinocytes expressing PD-L1 are particularly affected, leading to a dense CD4/CD8 positive lymphocytic infiltration in the basal layer, necrosis of keratinocytes, acanthosis, and hypergranulosis. Subsequently, the cutaneous adverse reaction is a target effect of the PD-1/PD-L1 pathway and not a general hypersensitivity reaction. Clinically, both lichen planus and lichenoid drug eruptions exhibit erythematous papules and plaques. Lichenoid drug eruptions, however, can be scaly, pruritic, and heal with more hyperpigmentation.

A skin biopsy revealed irregular epidermal hyperplasia with jagged rete ridges. Within the dermis, there was a lichenoid inflammatory cell infiltrate obscuring the dermal-epidermal junction. The inflammatory cell infiltrate contained lymphocytes, histiocytes, and eosinophils. A diagnosis of a lichen planus-like adverse drug reaction to pembrolizumab was favored.

If the reaction is mild, topical corticosteroids and oral antihistamines can help with the drug-induced lichen planus. For more severe cases, systemic steroids can be given to help ease the reaction. Physicians should be aware of potential adverse drug effects that can mimic other medical conditions.

Dr. Donna Bilu Martin

The case and photo were submitted by Ms. Towe, Nova Southeastern University College of Osteopathic Medicine, Davie, Florida, and Dr. Berke, Three Rivers Dermatology, Coraopolis, Pennsylvania. The column was edited by Donna Bilu Martin, MD.
 

Dr. Bilu Martin is a board-certified dermatologist in private practice at Premier Dermatology, MD, in Aventura, Fla. More diagnostic cases are available at mdedge.com/dermatology. To submit a case for possible publication, send an email to [email protected].

References

Bansal A et al. Indian Dermatol Online J. 2023 Apr 4;14(3):391-4. doi: 10.4103/idoj.idoj_377_22.

Sethi A, Raj M. Cureus. 2021 Mar 8;13(3):e13768. doi: 10.7759/cureus.13768.

Pembrolizumab (Keytruda) is a programmed cell death protein 1 (PD-1) blocking antibody used to treat different malignancies including melanoma, non–small cell lung cancer, and other advanced solid tumors and hematologic malignancies. Various dermatological side effects have been associated with pembrolizumab, including pruritus, bullous pemphigoid, vitiligo, lichenoid skin reactions, psoriasis, and rarely, life-threatening conditions like Steven-Johnson syndrome and drug rash with eosinophilia and systemic symptoms (DRESS).

Lichen planus-like adverse drug reactions, as seen in this patient, are also referred to as lichenoid drug eruption or drug-induced lichen planus. This cutaneous reaction is one of the more rare side effects of pembrolizumab. It should be noted that in lichenoid reactions, keratinocytes expressing PD-L1 are particularly affected, leading to a dense CD4/CD8 positive lymphocytic infiltration in the basal layer, necrosis of keratinocytes, acanthosis, and hypergranulosis. Subsequently, the cutaneous adverse reaction is a target effect of the PD-1/PD-L1 pathway and not a general hypersensitivity reaction. Clinically, both lichen planus and lichenoid drug eruptions exhibit erythematous papules and plaques. Lichenoid drug eruptions, however, can be scaly, pruritic, and heal with more hyperpigmentation.

A skin biopsy revealed irregular epidermal hyperplasia with jagged rete ridges. Within the dermis, there was a lichenoid inflammatory cell infiltrate obscuring the dermal-epidermal junction. The inflammatory cell infiltrate contained lymphocytes, histiocytes, and eosinophils. A diagnosis of a lichen planus-like adverse drug reaction to pembrolizumab was favored.

If the reaction is mild, topical corticosteroids and oral antihistamines can help with the drug-induced lichen planus. For more severe cases, systemic steroids can be given to help ease the reaction. Physicians should be aware of potential adverse drug effects that can mimic other medical conditions.

Dr. Donna Bilu Martin

The case and photo were submitted by Ms. Towe, Nova Southeastern University College of Osteopathic Medicine, Davie, Florida, and Dr. Berke, Three Rivers Dermatology, Coraopolis, Pennsylvania. The column was edited by Donna Bilu Martin, MD.
 

Dr. Bilu Martin is a board-certified dermatologist in private practice at Premier Dermatology, MD, in Aventura, Fla. More diagnostic cases are available at mdedge.com/dermatology. To submit a case for possible publication, send an email to [email protected].

References

Bansal A et al. Indian Dermatol Online J. 2023 Apr 4;14(3):391-4. doi: 10.4103/idoj.idoj_377_22.

Sethi A, Raj M. Cureus. 2021 Mar 8;13(3):e13768. doi: 10.7759/cureus.13768.

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A 74-year-old White male with a history of metastatic renal cell carcinoma (on pembrolizumab as adjuvant therapy started 1 year previously) presented with a 2-month history of mildly pruritic, violaceous papules, and hyperkeratotic plaques. He had no improvement after a 5-day course of prednisone and topical triamcinolone. Pembrolizumab was discontinued by oncology because the patient had completed a majority of the cycles of therapy and it was adjuvant therapy.

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Doctors Endorsing Products on X May Not Disclose Company Ties

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Wed, 06/19/2024 - 10:30

Nearly one in three physicians endorsing drugs and devices on the social media platform X did not disclose that they received payments from the manufacturers, according to a new study published in JAMA.

Lead author Aaron Mitchell, MD, MPH, a medical oncologist at Memorial Sloan Kettering Cancer Center in New York City, told this news organization that he and his colleagues undertook the study in part to see whether physicians were adhering to professional and industry guidelines regarding marketing communications.

The team reviewed posts by physicians on X during 2022, looking for key words that might indicate that the posts were intended as endorsements of a product. The researchers then delved into the Centers for Medicare and Medicaid Services Open Payments database to see how many of those identified as having endorsed a product were paid by the manufacturers.

What Dr. Mitchell found concerned him, he said.

Overall, the researchers identified 28 physician endorsers who received a total of $1.4 million from sponsors in 2022. Among these, 26 physicians (93%) received payments from the product’s manufacturer, totaling $713,976, and 24 physicians (86%) accepted payments related to the endorsed drug or device, totaling $492,098.

While most did disclose that the posts were sponsored — by adding the word “sponsored” or using #sponsored — nine physicians did not.

Although 28 physician endorsers represent a “small fraction” of the overall number of physicians who use X, each endorsement was ultimately posted dozens, if not hundreds of times, said Dr. Mitchell. In fact, he said he saw the same particular endorsement post every time he opened his X app for months.

Overall, Dr. Mitchell noted that it’s less about the fact that the endorsements are occurring on social media and more that there are these paid endorsements taking place at all.

Among the physician specialties promoting a product, urologists and oncologists dominated. Almost one third were urologists, and 57% were oncologists — six medical oncologists, six radiation oncologists, and four gynecologic oncologists. Of the remaining three physicians, two were internists and one was a pulmonary and critical care medicine specialist.

The authors tracked posts from physicians and industry accounts. Many of the posts on industry accounts were physician testimonials, usually videos. Almost half — 8 of 17 — of those testimonials did not disclose that the doctor was being paid by the manufacturer. In another case, a physician did not disclose that they were paid to endorse a white paper.

Fifteen promotional posts were for a Boston Scientific product, followed by six for GlaxoSmithKline, two for Eisai, two for Exelixis, and one each for AstraZeneca, Novartis, and Pfizer.

In general, Dr. Mitchell said, industry guidelines suggest that manufacturer-paid speakers or consultants should have well-regarded expertise in the area they are being asked to weigh in on, but most physician endorsers in the study were not key opinion leaders or experts.

The authors examined the paid endorsers’ H-index — a measure of academic productivity provided by Scopus. Overall, 19 of the 28 physicians had an H-index below 20, which is considered less accomplished, and 14 had no published research related to the endorsed product.

Ten received payments from manufacturers for research purposes, and only one received research payments related to the endorsed product ($224,577).

“Physicians’ participation in industry marketing raises questions regarding professionalism and their responsibilities as patient advocates,” the JAMA authors wrote.

The study was supported by grants from the National Cancer Institute. Dr. Mitchell reported no relevant financial relationships. Coauthors Samer Al Hadidi, MD, reported receiving personal fees from Pfizer, Sanofi, and Janssen during the conduct of the study, and Timothy S. Anderson, MD, reported receiving grants from the National Institute on Aging, the American Heart Association, and the American College of Cardiology, and receiving consulting fees from the American Medical Student Association. Dr. Anderson is also an associate editor of JAMA Internal Medicine.

A version of this article appeared on Medscape.com.

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Nearly one in three physicians endorsing drugs and devices on the social media platform X did not disclose that they received payments from the manufacturers, according to a new study published in JAMA.

Lead author Aaron Mitchell, MD, MPH, a medical oncologist at Memorial Sloan Kettering Cancer Center in New York City, told this news organization that he and his colleagues undertook the study in part to see whether physicians were adhering to professional and industry guidelines regarding marketing communications.

The team reviewed posts by physicians on X during 2022, looking for key words that might indicate that the posts were intended as endorsements of a product. The researchers then delved into the Centers for Medicare and Medicaid Services Open Payments database to see how many of those identified as having endorsed a product were paid by the manufacturers.

What Dr. Mitchell found concerned him, he said.

Overall, the researchers identified 28 physician endorsers who received a total of $1.4 million from sponsors in 2022. Among these, 26 physicians (93%) received payments from the product’s manufacturer, totaling $713,976, and 24 physicians (86%) accepted payments related to the endorsed drug or device, totaling $492,098.

While most did disclose that the posts were sponsored — by adding the word “sponsored” or using #sponsored — nine physicians did not.

Although 28 physician endorsers represent a “small fraction” of the overall number of physicians who use X, each endorsement was ultimately posted dozens, if not hundreds of times, said Dr. Mitchell. In fact, he said he saw the same particular endorsement post every time he opened his X app for months.

Overall, Dr. Mitchell noted that it’s less about the fact that the endorsements are occurring on social media and more that there are these paid endorsements taking place at all.

Among the physician specialties promoting a product, urologists and oncologists dominated. Almost one third were urologists, and 57% were oncologists — six medical oncologists, six radiation oncologists, and four gynecologic oncologists. Of the remaining three physicians, two were internists and one was a pulmonary and critical care medicine specialist.

The authors tracked posts from physicians and industry accounts. Many of the posts on industry accounts were physician testimonials, usually videos. Almost half — 8 of 17 — of those testimonials did not disclose that the doctor was being paid by the manufacturer. In another case, a physician did not disclose that they were paid to endorse a white paper.

Fifteen promotional posts were for a Boston Scientific product, followed by six for GlaxoSmithKline, two for Eisai, two for Exelixis, and one each for AstraZeneca, Novartis, and Pfizer.

In general, Dr. Mitchell said, industry guidelines suggest that manufacturer-paid speakers or consultants should have well-regarded expertise in the area they are being asked to weigh in on, but most physician endorsers in the study were not key opinion leaders or experts.

The authors examined the paid endorsers’ H-index — a measure of academic productivity provided by Scopus. Overall, 19 of the 28 physicians had an H-index below 20, which is considered less accomplished, and 14 had no published research related to the endorsed product.

Ten received payments from manufacturers for research purposes, and only one received research payments related to the endorsed product ($224,577).

“Physicians’ participation in industry marketing raises questions regarding professionalism and their responsibilities as patient advocates,” the JAMA authors wrote.

The study was supported by grants from the National Cancer Institute. Dr. Mitchell reported no relevant financial relationships. Coauthors Samer Al Hadidi, MD, reported receiving personal fees from Pfizer, Sanofi, and Janssen during the conduct of the study, and Timothy S. Anderson, MD, reported receiving grants from the National Institute on Aging, the American Heart Association, and the American College of Cardiology, and receiving consulting fees from the American Medical Student Association. Dr. Anderson is also an associate editor of JAMA Internal Medicine.

A version of this article appeared on Medscape.com.

Nearly one in three physicians endorsing drugs and devices on the social media platform X did not disclose that they received payments from the manufacturers, according to a new study published in JAMA.

Lead author Aaron Mitchell, MD, MPH, a medical oncologist at Memorial Sloan Kettering Cancer Center in New York City, told this news organization that he and his colleagues undertook the study in part to see whether physicians were adhering to professional and industry guidelines regarding marketing communications.

The team reviewed posts by physicians on X during 2022, looking for key words that might indicate that the posts were intended as endorsements of a product. The researchers then delved into the Centers for Medicare and Medicaid Services Open Payments database to see how many of those identified as having endorsed a product were paid by the manufacturers.

What Dr. Mitchell found concerned him, he said.

Overall, the researchers identified 28 physician endorsers who received a total of $1.4 million from sponsors in 2022. Among these, 26 physicians (93%) received payments from the product’s manufacturer, totaling $713,976, and 24 physicians (86%) accepted payments related to the endorsed drug or device, totaling $492,098.

While most did disclose that the posts were sponsored — by adding the word “sponsored” or using #sponsored — nine physicians did not.

Although 28 physician endorsers represent a “small fraction” of the overall number of physicians who use X, each endorsement was ultimately posted dozens, if not hundreds of times, said Dr. Mitchell. In fact, he said he saw the same particular endorsement post every time he opened his X app for months.

Overall, Dr. Mitchell noted that it’s less about the fact that the endorsements are occurring on social media and more that there are these paid endorsements taking place at all.

Among the physician specialties promoting a product, urologists and oncologists dominated. Almost one third were urologists, and 57% were oncologists — six medical oncologists, six radiation oncologists, and four gynecologic oncologists. Of the remaining three physicians, two were internists and one was a pulmonary and critical care medicine specialist.

The authors tracked posts from physicians and industry accounts. Many of the posts on industry accounts were physician testimonials, usually videos. Almost half — 8 of 17 — of those testimonials did not disclose that the doctor was being paid by the manufacturer. In another case, a physician did not disclose that they were paid to endorse a white paper.

Fifteen promotional posts were for a Boston Scientific product, followed by six for GlaxoSmithKline, two for Eisai, two for Exelixis, and one each for AstraZeneca, Novartis, and Pfizer.

In general, Dr. Mitchell said, industry guidelines suggest that manufacturer-paid speakers or consultants should have well-regarded expertise in the area they are being asked to weigh in on, but most physician endorsers in the study were not key opinion leaders or experts.

The authors examined the paid endorsers’ H-index — a measure of academic productivity provided by Scopus. Overall, 19 of the 28 physicians had an H-index below 20, which is considered less accomplished, and 14 had no published research related to the endorsed product.

Ten received payments from manufacturers for research purposes, and only one received research payments related to the endorsed product ($224,577).

“Physicians’ participation in industry marketing raises questions regarding professionalism and their responsibilities as patient advocates,” the JAMA authors wrote.

The study was supported by grants from the National Cancer Institute. Dr. Mitchell reported no relevant financial relationships. Coauthors Samer Al Hadidi, MD, reported receiving personal fees from Pfizer, Sanofi, and Janssen during the conduct of the study, and Timothy S. Anderson, MD, reported receiving grants from the National Institute on Aging, the American Heart Association, and the American College of Cardiology, and receiving consulting fees from the American Medical Student Association. Dr. Anderson is also an associate editor of JAMA Internal Medicine.

A version of this article appeared on Medscape.com.

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One Patient Changed This Oncologist’s View of Hope. Here’s How.

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Tue, 06/25/2024 - 17:58

— Carlos, a 21-year-old, lay in a hospital bed, barely clinging to life. Following a stem cell transplant for leukemia, Carlos had developed a life-threatening case of graft-vs-host disease.

But Carlos’ mother had faith.

“I have hope things will get better,” she said, via interpreter, to Richard Leiter, MD, a palliative care doctor in training at that time.

“I hope they will,” Dr. Leiter told her.

“I should have stopped there,” said Dr. Leiter, recounting an early-career lesson on hope during the ASCO Voices session at the American Society of Clinical Oncology annual meeting. “But in my eagerness to show my attending and myself that I could handle this conversation, I kept going, mistakenly.”

“But none of us think they will,” Dr. Leiter continued.

Carlos’ mother looked Dr. Leiter in the eye. “You want him to die,” she said.

“I knew, even then, that she was right,” recalled Dr. Leiter, now a palliative care physician at Dana-Farber Cancer Institute and Brigham and Women’s Hospital and an assistant professor of medicine at Harvard Medical School, Boston.

Although there was nothing he could do to save Carlos, Dr. Leiter also couldn’t sit with the extreme suffering. “The pain was too great,” Dr. Leiter said. “I needed her to adopt our narrative that we had done everything we could to help him live, and now, we would do everything we could to help his death be a comfortable one.”

But looking back, Dr. Leiter realized, “How could we have asked her to accept what was fundamentally unacceptable, to comprehend the incomprehensible?”
 

The Importance of Hope

Hope is not only a feature of human cognition but also a measurable and malleable construct that can affect life outcomes, Alan B. Astrow, MD, said during an ASCO symposium on “The Art and Science of Hope.”

“How we think about hope directly influences patient care,” said Dr. Astrow, chief of hematology and medical oncology at NewYork-Presbyterian Brooklyn Methodist Hospital and a professor of clinical medicine at Weill Cornell Medicine in New York City.

Hope, whatever it turns out to be neurobiologically, is “very much a gift” that underlies human existence, he said.

Physicians have the capacity to restore or shatter a patient’s hopes, and those who come to understand the importance of hope will wish to extend the gift to others, Dr. Astrow said.

Asking patients about their hopes is the “golden question,” Steven Z. Pantilat, MD, said at the symposium. “When you think about the future, what do you hope for?”

Often, the answers reveal not only “things beyond a cure that matter tremendously to the patient but things that we can help with,” said Dr. Pantilat, professor and chief of the Division of Palliative Medicine at the University of California San Francisco.

Dr. Pantilat recalled a patient with advanced pancreatic cancer who wished to see her daughter’s wedding in 10 months. He knew that was unlikely, but the discussion led to another solution.

Her daughter moved the wedding to the ICU.

Hope can persist and uplift even in the darkest of times, and “as clinicians, we need to be in the true hope business,” he said.

While some patients may wish for a cure, others may want more time with family or comfort in the face of suffering. People can “hope for all the things that can still be, despite the fact that there’s a lot of things that can’t,” he said.

However, fear that a patient will hope for a cure, and that the difficult discussions to follow might destroy hope or lead to false hope, sometimes means physicians won’t begin the conversation.

“We want to be honest with our patients — compassionate and kind, but honest — when we talk about their hopes,” Dr. Pantilat explained. Sometimes that means he needs to tell patients, “I wish that could happen. I wish I had a treatment that could make your cancer go away, but unfortunately, I don’t. So let’s think about what else we can do to help you.”

Having these difficult discussions matters. The evidence, although limited, indicates that feeling hopeful can improve patients’ well-being and may even boost their cancer outcomes.

One recent study found, for instance, that patients who reported feeling more hopeful also had lower levels of depression and anxiety. Early research also suggests that greater levels of hope may have a hand in reducing inflammation in patients with ovarian cancer and could even improve survival in some patients with advanced cancer.

For Dr. Leiter, while these lessons came early in his career as a palliative care physician, they persist and influence his practice today.

“I know that I could not have prevented Carlos’ death. None of us could have, and none of us could have protected his mother from the unimaginable grief that will stay with her for the rest of her life,” he said. “But I could have made things just a little bit less difficult for her.

“I could have acted as her guide rather than her cross-examiner,” he continued, explaining that he now sees hope as “a generous collaborator” that can coexist with rising creatinine levels, failing livers, and fears about intubation.

“As clinicians, we can always find space to hope with our patients and their families,” he said. “So now, years later when I sit with a terrified and grieving family and they tell me they hope their loved one gets better, I remember Carlos’ mother’s eyes piercing mine ... and I know how to respond: ‘I hope so, too.’ And I do.”
 

A version of this article appeared on Medscape.com.

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— Carlos, a 21-year-old, lay in a hospital bed, barely clinging to life. Following a stem cell transplant for leukemia, Carlos had developed a life-threatening case of graft-vs-host disease.

But Carlos’ mother had faith.

“I have hope things will get better,” she said, via interpreter, to Richard Leiter, MD, a palliative care doctor in training at that time.

“I hope they will,” Dr. Leiter told her.

“I should have stopped there,” said Dr. Leiter, recounting an early-career lesson on hope during the ASCO Voices session at the American Society of Clinical Oncology annual meeting. “But in my eagerness to show my attending and myself that I could handle this conversation, I kept going, mistakenly.”

“But none of us think they will,” Dr. Leiter continued.

Carlos’ mother looked Dr. Leiter in the eye. “You want him to die,” she said.

“I knew, even then, that she was right,” recalled Dr. Leiter, now a palliative care physician at Dana-Farber Cancer Institute and Brigham and Women’s Hospital and an assistant professor of medicine at Harvard Medical School, Boston.

Although there was nothing he could do to save Carlos, Dr. Leiter also couldn’t sit with the extreme suffering. “The pain was too great,” Dr. Leiter said. “I needed her to adopt our narrative that we had done everything we could to help him live, and now, we would do everything we could to help his death be a comfortable one.”

But looking back, Dr. Leiter realized, “How could we have asked her to accept what was fundamentally unacceptable, to comprehend the incomprehensible?”
 

The Importance of Hope

Hope is not only a feature of human cognition but also a measurable and malleable construct that can affect life outcomes, Alan B. Astrow, MD, said during an ASCO symposium on “The Art and Science of Hope.”

“How we think about hope directly influences patient care,” said Dr. Astrow, chief of hematology and medical oncology at NewYork-Presbyterian Brooklyn Methodist Hospital and a professor of clinical medicine at Weill Cornell Medicine in New York City.

Hope, whatever it turns out to be neurobiologically, is “very much a gift” that underlies human existence, he said.

Physicians have the capacity to restore or shatter a patient’s hopes, and those who come to understand the importance of hope will wish to extend the gift to others, Dr. Astrow said.

Asking patients about their hopes is the “golden question,” Steven Z. Pantilat, MD, said at the symposium. “When you think about the future, what do you hope for?”

Often, the answers reveal not only “things beyond a cure that matter tremendously to the patient but things that we can help with,” said Dr. Pantilat, professor and chief of the Division of Palliative Medicine at the University of California San Francisco.

Dr. Pantilat recalled a patient with advanced pancreatic cancer who wished to see her daughter’s wedding in 10 months. He knew that was unlikely, but the discussion led to another solution.

Her daughter moved the wedding to the ICU.

Hope can persist and uplift even in the darkest of times, and “as clinicians, we need to be in the true hope business,” he said.

While some patients may wish for a cure, others may want more time with family or comfort in the face of suffering. People can “hope for all the things that can still be, despite the fact that there’s a lot of things that can’t,” he said.

However, fear that a patient will hope for a cure, and that the difficult discussions to follow might destroy hope or lead to false hope, sometimes means physicians won’t begin the conversation.

“We want to be honest with our patients — compassionate and kind, but honest — when we talk about their hopes,” Dr. Pantilat explained. Sometimes that means he needs to tell patients, “I wish that could happen. I wish I had a treatment that could make your cancer go away, but unfortunately, I don’t. So let’s think about what else we can do to help you.”

Having these difficult discussions matters. The evidence, although limited, indicates that feeling hopeful can improve patients’ well-being and may even boost their cancer outcomes.

One recent study found, for instance, that patients who reported feeling more hopeful also had lower levels of depression and anxiety. Early research also suggests that greater levels of hope may have a hand in reducing inflammation in patients with ovarian cancer and could even improve survival in some patients with advanced cancer.

For Dr. Leiter, while these lessons came early in his career as a palliative care physician, they persist and influence his practice today.

“I know that I could not have prevented Carlos’ death. None of us could have, and none of us could have protected his mother from the unimaginable grief that will stay with her for the rest of her life,” he said. “But I could have made things just a little bit less difficult for her.

“I could have acted as her guide rather than her cross-examiner,” he continued, explaining that he now sees hope as “a generous collaborator” that can coexist with rising creatinine levels, failing livers, and fears about intubation.

“As clinicians, we can always find space to hope with our patients and their families,” he said. “So now, years later when I sit with a terrified and grieving family and they tell me they hope their loved one gets better, I remember Carlos’ mother’s eyes piercing mine ... and I know how to respond: ‘I hope so, too.’ And I do.”
 

A version of this article appeared on Medscape.com.

— Carlos, a 21-year-old, lay in a hospital bed, barely clinging to life. Following a stem cell transplant for leukemia, Carlos had developed a life-threatening case of graft-vs-host disease.

But Carlos’ mother had faith.

“I have hope things will get better,” she said, via interpreter, to Richard Leiter, MD, a palliative care doctor in training at that time.

“I hope they will,” Dr. Leiter told her.

“I should have stopped there,” said Dr. Leiter, recounting an early-career lesson on hope during the ASCO Voices session at the American Society of Clinical Oncology annual meeting. “But in my eagerness to show my attending and myself that I could handle this conversation, I kept going, mistakenly.”

“But none of us think they will,” Dr. Leiter continued.

Carlos’ mother looked Dr. Leiter in the eye. “You want him to die,” she said.

“I knew, even then, that she was right,” recalled Dr. Leiter, now a palliative care physician at Dana-Farber Cancer Institute and Brigham and Women’s Hospital and an assistant professor of medicine at Harvard Medical School, Boston.

Although there was nothing he could do to save Carlos, Dr. Leiter also couldn’t sit with the extreme suffering. “The pain was too great,” Dr. Leiter said. “I needed her to adopt our narrative that we had done everything we could to help him live, and now, we would do everything we could to help his death be a comfortable one.”

But looking back, Dr. Leiter realized, “How could we have asked her to accept what was fundamentally unacceptable, to comprehend the incomprehensible?”
 

The Importance of Hope

Hope is not only a feature of human cognition but also a measurable and malleable construct that can affect life outcomes, Alan B. Astrow, MD, said during an ASCO symposium on “The Art and Science of Hope.”

“How we think about hope directly influences patient care,” said Dr. Astrow, chief of hematology and medical oncology at NewYork-Presbyterian Brooklyn Methodist Hospital and a professor of clinical medicine at Weill Cornell Medicine in New York City.

Hope, whatever it turns out to be neurobiologically, is “very much a gift” that underlies human existence, he said.

Physicians have the capacity to restore or shatter a patient’s hopes, and those who come to understand the importance of hope will wish to extend the gift to others, Dr. Astrow said.

Asking patients about their hopes is the “golden question,” Steven Z. Pantilat, MD, said at the symposium. “When you think about the future, what do you hope for?”

Often, the answers reveal not only “things beyond a cure that matter tremendously to the patient but things that we can help with,” said Dr. Pantilat, professor and chief of the Division of Palliative Medicine at the University of California San Francisco.

Dr. Pantilat recalled a patient with advanced pancreatic cancer who wished to see her daughter’s wedding in 10 months. He knew that was unlikely, but the discussion led to another solution.

Her daughter moved the wedding to the ICU.

Hope can persist and uplift even in the darkest of times, and “as clinicians, we need to be in the true hope business,” he said.

While some patients may wish for a cure, others may want more time with family or comfort in the face of suffering. People can “hope for all the things that can still be, despite the fact that there’s a lot of things that can’t,” he said.

However, fear that a patient will hope for a cure, and that the difficult discussions to follow might destroy hope or lead to false hope, sometimes means physicians won’t begin the conversation.

“We want to be honest with our patients — compassionate and kind, but honest — when we talk about their hopes,” Dr. Pantilat explained. Sometimes that means he needs to tell patients, “I wish that could happen. I wish I had a treatment that could make your cancer go away, but unfortunately, I don’t. So let’s think about what else we can do to help you.”

Having these difficult discussions matters. The evidence, although limited, indicates that feeling hopeful can improve patients’ well-being and may even boost their cancer outcomes.

One recent study found, for instance, that patients who reported feeling more hopeful also had lower levels of depression and anxiety. Early research also suggests that greater levels of hope may have a hand in reducing inflammation in patients with ovarian cancer and could even improve survival in some patients with advanced cancer.

For Dr. Leiter, while these lessons came early in his career as a palliative care physician, they persist and influence his practice today.

“I know that I could not have prevented Carlos’ death. None of us could have, and none of us could have protected his mother from the unimaginable grief that will stay with her for the rest of her life,” he said. “But I could have made things just a little bit less difficult for her.

“I could have acted as her guide rather than her cross-examiner,” he continued, explaining that he now sees hope as “a generous collaborator” that can coexist with rising creatinine levels, failing livers, and fears about intubation.

“As clinicians, we can always find space to hope with our patients and their families,” he said. “So now, years later when I sit with a terrified and grieving family and they tell me they hope their loved one gets better, I remember Carlos’ mother’s eyes piercing mine ... and I know how to respond: ‘I hope so, too.’ And I do.”
 

A version of this article appeared on Medscape.com.

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Aquatic Antagonists: Dermatologic Injuries From Sea Urchins (Echinoidea)

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Aquatic Antagonists: Dermatologic Injuries From Sea Urchins (Echinoidea)

Sea urchins—members of the phylum Echinodermata and the class Echinoidea—are spiny marine invertebrates. Their consumption of fleshy algae makes them essential players in maintaining reef ecosystems.1,2 Echinoids, a class that includes heart urchins and sand dollars, are ubiquitous in benthic marine environments, both free floating and rock boring, and inhabit a wide range of latitudes spanning from polar oceans to warm seas.3 Despite their immobility and nonaggression, sea urchin puncture wounds are common among divers, snorkelers, swimmers, surfers, and fishers who accidentally come into contact with their sharp spines. Although the epidemiology of sea urchin exposure and injury is difficult to assess, the American Association of Poison Control Centers’ most recent annual report in 2022 documents approximately 1426 annual aquatic bites and/or envenomations.4

Sea Urchin Morphology and Toxicity

Echinoderms (a term of Greek origin meaning spiny skin) share a radially symmetric calcium carbonate skeleton (termed stereom) that is supported by collagenous ligaments.1 Sea urchins possess spines composed of calcite crystals, which radiate from their body and play a role in locomotion and defense against predators—namely sea otters, starfish/sea stars, wolf eels, and triggerfish, among others (Figure).5 These brittle spines can easily penetrate human skin and subsequently break off the sea urchin body. Most species of sea urchins possess solid spines, but a small percentage (80 of approximately 700 extant species) have hollow spines containing various toxic substances.6 Penetration and systemic absorption of the toxins within these spines can generate severe systemic responses.

The venomous flower urchin (Toxopneustes pileolus), found in the Indian and Pacific oceans, is one of the more common species known to produce a systemic reaction involving neuromuscular blockage.7-9 The most common species harvested off the Pacific coast of the United States—Strongylocentrotus purpuratus (purple sea urchin) and Strongylocentrotus franciscanus (red sea urchins)—are not inherently venomous.8

Purple sea urchin (Strongylocentrotus purpuratus). Photograph courtesy of the South Carolina Aquarium (Charleston, South Carolina).


Both the sea urchin body and spines are covered in a unique epithelium thought to be responsible for the majority of their proinflammatory and pronociceptive properties. Epithelial compounds identified include serotonin, histamines, steroids, glycosides, hemolysins, proteases, and bradykininlike and cholinergic substances.5,7 Additionally, certain sea urchin species possess 3-pronged pincerlike organs at the base of spines called pedicellariae, which are used in feeding.10 Skin penetration by the pedicellariae is especially dangerous, as they tightly adhere to wounds and contain venom-producing organs that allow them to continue injecting toxins after their detachment from the sea urchin body.11

Presentation and Diagnosis of Sea Urchin Injuries

Sea urchin injuries have a wide range of manifestations depending on the number of spines involved, the presence of venom, the depth and location of spine penetration, the duration of spine retention in the skin, and the time before treatment initiation. The most common site of sea urchin injury unsurprisingly is the lower extremities and feet, often in the context of divers and swimmers walking across the sea floor. The hands are another frequently injured site, along with the legs, arms, back, scalp, and even oral mucosa.11

Although clinical history and presentation frequently reveal the mechanism of aquatic injury, patients often are unsure of the agent to which they were exposed and may be unaware of retained foreign bodies. Dermoscopy can distinguish the distinct lines radiating from the core of sea urchin spines from other foreign bodies lodged within the skin.6 It also can be used to locate spines for removal or for their analysis following punch biopsy.6,12 The radiopaque nature of sea urchin spines makes radiography and magnetic resonance imaging useful tools in assessment of periarticular soft-tissue damage and spine removal.8,11,13 Ultrasonography can reveal spines that no longer appear on radiography due to absorption by human tissue.14

Immediate Dermatologic Effects

Sea urchin injuries can be broadly categorized into immediate and delayed reactions. Immediate manifestations of contact with sea urchin spines include localized pain, bleeding, erythema, myalgia, and edema at the site of injury that can last from a few hours to 1 week without proper wound care and spine removal.5 Systemic symptoms ranging from dizziness, lightheadedness, paresthesia, aphonia, paralysis, coma, and death generally are only seen following injuries from venomous species, attachment of pedicellariae, injuries involving neurovascular structures, or penetration by more than 15 spines.7,11

Initial treatment includes soaking the wound in hot water (113 °F [45 °C]) for 30 to 90 minutes and subsequently removing spines and pedicellariae to prevent development of delayed reactions.5,15,16 The compounds in the sea urchin epithelium are heat labile and will be inactivated upon soaking in hot water.16 Extraction of spines can be difficult, as they are brittle and easily break in the skin. Successful removal has been reported using forceps and a hypodermic needle as well as excision; both approaches may require local anesthesia.8,17 Another technique involves freezing the localized area with liquid nitrogen to allow easier removal upon skin blistering.18 Punch biopsy also has been utilized as an effective means of ensuring all spiny fragments are removed.9,19,20 These spines often cause black or purple tattoolike staining at the puncture site, which can persist for a few days after spine extraction.8 Ablation using the erbium-doped:YAG laser may be helpful for removal of associated pigment.21,22

Delayed Dermatologic Effects

Delayed reactions to sea urchin injuries often are attributable to prolonged retention of spines in the skin. Granulomatous reactions typically manifest 2 weeks after injury as firm nonsuppurative nodules with central umbilication and a hyperkeratotic surface.7 These nodules may or may not be painful. Histopathology most often reveals foreign body and sarcoidal-type granulomatous reactions. However, tuberculoid, necrobiotic, and suppurative granulomas also may develop.13 Other microscopic features include inflammatory reactions, suppurative dermatitis, focal necrosis, and microabscesses.23 Wounds with progression to granulomatous disease often require surgical debridement.

Other more serious sequalae can result from involvement of joint capsules, especially in the hands and feet. Sea urchin injury involving joint spaces should be treated aggressively, as progression to inflammatory or infectious synovitis and tenosynovitis can cause irreversible loss of joint function. Inflammatory synovitis occurs 1 to 2 months on average after injury following a period of minimal symptoms and begins as a gradual increase in joint swelling and decrease in range of motion.8 Infectious tenosynovitis manifests quite similarly. Although suppurative etiologies generally progress with a more acute onset, certain infectious organisms (eg, Mycobacterium) take on an indolent course and should not be overlooked as a cause of delayed symptoms.8 The Kavanel cardinal signs are a sensitive tool used in the diagnosis of infectious flexor sheath tenosynovitis.8,24 If suspicion for joint infection is high, emergency referral should be made for debridement and culture-guided antibiotic therapy. Left untreated, infectious tenosynovitis can result in tendon necrosis or rupture, digit necrosis, and systemic infection.24 Patients with joint involvement should be referred to specialty care (eg, hand surgeon), as they often require synovectomy and surgical removal of foreign material.8

From 1 month to 1 year after injury, prolonged granulomatous synovitis of the hand may eventually lead to joint destruction known as “sea urchin arthritis.” These patients present with decreased range of motion and numerous nodules on the hand with a hyperkeratotic surface. Radiography reveals joint space narrowing, osteolysis, subchondral sclerosis, and periosteal reaction. Synovectomy and debridement are necessary to prevent irreversible joint damage or the need for arthrodesis and bone grafting.24

Other Treatment Considerations

Other important considerations in the care of sea urchin spine injuries include assessment of tetanus immunization status and administration of necessary prophylaxis as soon as possible, even in delayed presentations (Table).16,25 Cultures should be taken only if infection is suspected. Prophylactic antibiotics are not recommended unless the patient is immunocompromised or otherwise has impaired wound healing. If a patient presents with systemic symptoms, they should be referred to an emergency care facility for further management.

Final Thoughts

Sea urchin injuries can lead to serious complications if not diagnosed quickly and treated properly. Retention of sea urchin spines in the deep tissues and joint spaces may lead to granulomas, inflammatory and infectious tenosynovitis (including mycobacterial infection), and sea urchin arthritis requiring surgical debridement and possible irreversible joint damage, up to a year after initial injury. Patients should be educated on the possibility of developing these delayed reactions and instructed to seek immediate care. Joint deformities, range-of-motion deficits, and involvement of neurovascular structures should be considered emergent and referred for proper management. Shoes and diving gear offer some protection but are easily penetrable by sharp sea urchin spines. Preventive focus should be aimed at educating patients and providers on the importance of prompt spine removal upon injury. Although dermatologic and systemic manifestations vary widely, a thorough history, physical examination, and appropriate use of imaging modalities can facilitate accurate diagnosis and guide treatment.

References
  1. Amemiya CT, Miyake T, Rast JP. Echinoderms. Curr Biol. 2005;15:R944-R946. doi:10.1016/j.cub.2005.11.026
  2. Koch NM, Coppard SE, Lessios HA, et al. A phylogenomic resolution of the sea urchin tree of life. BMC Evol Biol. 2018;18:189. doi:10.1186/s12862-018-1300-4
  3. Amir Y, Insler M, Giller A, et al. Senescence and longevity of sea urchins. Genes (Basel). 2020;11:573. doi:10.3390/genes11050573
  4. Gummin DD, Mowry JB, Beuhler MC, et al. 2022 Annual Report of the National Poison Data System® (NPDS) from America's Poison Centers®: 40th annual report. Clin Toxicol (Phila). 2023;61:717-939. doi:10.1080/15563650.2023.2268981
  5. Gelman Y, Kong EL, Murphy-Lavoie HM. Sea urchin toxicity. In: StatPearls [Internet]. StatPearls Publishing; 2021.
  6. Suarez-Conde MF, Vallone MG, González VM, et al. Sea urchin skin lesions: a case report. Dermatol Pract Concept. 2021;11:E2021009. doi:10.5826/dpc.1102a09
  7. Al-Kathiri L, Al-Najjar T, Sulaiman I. Sea urchin granuloma of the hands: a case report. Oman Med J. 2019;34:350-353. doi:10.5001/omj.2019.68
  8. Dahl WJ, Jebson P, Louis DS. Sea urchin injuries to the hand: a case report and review of the literature. Iowa Orthop J. 2010;30:153-156.
  9. Hatakeyama T, Ichise A, Unno H, et al. Carbohydrate recognition by the rhamnose-binding lectin SUL-I with a novel three-domain structure isolated from the venom of globiferous pedicellariae of the flower sea urchin Toxopneustes pileolus. Protein Sci. 2017;26:1574-1583. doi:10.1002/pro.3185
  10. Balhara KS, Stolbach A. Marine envenomations. Emerg Med Clin North Am. 2014;32:223-243. doi:10.1016/j.emc.2013.09.009
  11. Schwartz Z, Cohen M, Lipner SR. Sea urchin injuries: a review and clinical approach algorithm. J Dermatolog Treat. 2021;32:150-156. doi:10.1080/09546634.2019.1638884
  12. Park SJ, Park JW, Choi SY, et al. Use of dermoscopy after punch removal of a veiled sea urchin spine. Dermatol Ther. 2021;34:E14947. doi:10.1111/dth.14947
  13. Wada T, Soma T, Gaman K, et al. Sea urchin spine arthritis of the hand. J Hand Surg Am. 2008;33:398-401. doi:10.1016/j.jhsa.2007.11.016
  14. Groleau S, Chhem RK, Younge D, et al. Ultrasonography of foreign-body tenosynovitis. Can Assoc Radiol J. 1992;43:454-456. 
  15. Hornbeak KB, Auerbach PS. Marine envenomation. Emerg Med Clin North Am. 2017;35:321-337. doi:10.1016/j.emc.2016.12.004
  16. Noonburg GE. Management of extremity trauma and related infections occurring in the aquatic environment. J Am Acad Orthop Surg. 2005;13:243-253. doi:10.5435/00124635-200507000-00004
  17. Haddad Junior V. Observation of initial clinical manifestations and repercussions from the treatment of 314 human injuries caused by black sea urchins (Echinometra lucunter) on the southeastern Brazilian coast. Rev Soc Bras Med Trop. 2012;45:390-392. doi:10.1590/s0037-86822012000300021
  18. Gargus MD, Morohashi DK. A sea-urchin spine chilling remedy. N Engl J Med. 2012;367:1867-1868. doi:10.1056/NEJMc1209382
  19. Sjøberg T, de Weerd L. The usefulness of a skin biopsy punch to remove sea urchin spines. ANZ J Surg. 2010;80:383. doi:10.1111/j.1445-2197.2010.05296.x
  20. Cardenas-de la Garza JA, Cuellar-Barboza A, Ancer-Arellano J, et al. Classic dermatological tools: foreign body removal with punch biopsy.J Am Acad Dermatol. 2019;81:E93-E94. doi:10.1016/j.jaad.2018.10.038
  21. Gungor S, Tarikçi N, Gokdemir G. Removal of sea urchin spines using erbium-doped yttrium aluminum garnet ablation. Dermatol Surg. 2012;38:508-510. doi:10.1111/j.1524-4725.2011.02259.x
  22. Böer A, Ochsendorf FR, Beier C, et al. Effective removal of sea-urchin spines by erbium:YAG laser ablation. Br J Dermatol. 2001;145:169-170. doi:10.1046/j.1365-2133.2001.04306.x
  23. De La Torre C, Toribio J. Sea-urchin granuloma: histologic profile. a pathologic study of 50 biopsies. J Cutan Pathol. 2001;28:223-228. doi:10.1034/j.1600-0560.2001.028005223.x
  24. Yi A, Kennedy C, Chia B, et al. Radiographic soft tissue thickness differentiating pyogenic flexor tenosynovitis from other finger infections. J Hand Surg Am. 2019;44:394-399. doi:10.1016/j.jhsa.2019.01.013
  25. Callison C, Nguyen H. Tetanus prophylaxis. In: StatPearls [Internet]. StatPearls Publishing; 2022.
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The authors report no conflict of interest.

Correspondence: Caroline J. Brailsford, MD, Medical University of South Carolina, 135 Rutledge Ave, 11th Floor, Charleston, SC 29425-5780 ([email protected]).

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The authors report no conflict of interest.

Correspondence: Caroline J. Brailsford, MD, Medical University of South Carolina, 135 Rutledge Ave, 11th Floor, Charleston, SC 29425-5780 ([email protected]).

Cutis. 2024 June;113(6):255-257. doi:10.12788/cutis.1034

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From the Medical University of South Carolina, Charleston. Dr. Brailsford is from the College of Medicine, and Dr. Elston is from the Department of Dermatology and Dermatologic Surgery.

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Correspondence: Caroline J. Brailsford, MD, Medical University of South Carolina, 135 Rutledge Ave, 11th Floor, Charleston, SC 29425-5780 ([email protected]).

Cutis. 2024 June;113(6):255-257. doi:10.12788/cutis.1034

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Sea urchins—members of the phylum Echinodermata and the class Echinoidea—are spiny marine invertebrates. Their consumption of fleshy algae makes them essential players in maintaining reef ecosystems.1,2 Echinoids, a class that includes heart urchins and sand dollars, are ubiquitous in benthic marine environments, both free floating and rock boring, and inhabit a wide range of latitudes spanning from polar oceans to warm seas.3 Despite their immobility and nonaggression, sea urchin puncture wounds are common among divers, snorkelers, swimmers, surfers, and fishers who accidentally come into contact with their sharp spines. Although the epidemiology of sea urchin exposure and injury is difficult to assess, the American Association of Poison Control Centers’ most recent annual report in 2022 documents approximately 1426 annual aquatic bites and/or envenomations.4

Sea Urchin Morphology and Toxicity

Echinoderms (a term of Greek origin meaning spiny skin) share a radially symmetric calcium carbonate skeleton (termed stereom) that is supported by collagenous ligaments.1 Sea urchins possess spines composed of calcite crystals, which radiate from their body and play a role in locomotion and defense against predators—namely sea otters, starfish/sea stars, wolf eels, and triggerfish, among others (Figure).5 These brittle spines can easily penetrate human skin and subsequently break off the sea urchin body. Most species of sea urchins possess solid spines, but a small percentage (80 of approximately 700 extant species) have hollow spines containing various toxic substances.6 Penetration and systemic absorption of the toxins within these spines can generate severe systemic responses.

The venomous flower urchin (Toxopneustes pileolus), found in the Indian and Pacific oceans, is one of the more common species known to produce a systemic reaction involving neuromuscular blockage.7-9 The most common species harvested off the Pacific coast of the United States—Strongylocentrotus purpuratus (purple sea urchin) and Strongylocentrotus franciscanus (red sea urchins)—are not inherently venomous.8

Purple sea urchin (Strongylocentrotus purpuratus). Photograph courtesy of the South Carolina Aquarium (Charleston, South Carolina).


Both the sea urchin body and spines are covered in a unique epithelium thought to be responsible for the majority of their proinflammatory and pronociceptive properties. Epithelial compounds identified include serotonin, histamines, steroids, glycosides, hemolysins, proteases, and bradykininlike and cholinergic substances.5,7 Additionally, certain sea urchin species possess 3-pronged pincerlike organs at the base of spines called pedicellariae, which are used in feeding.10 Skin penetration by the pedicellariae is especially dangerous, as they tightly adhere to wounds and contain venom-producing organs that allow them to continue injecting toxins after their detachment from the sea urchin body.11

Presentation and Diagnosis of Sea Urchin Injuries

Sea urchin injuries have a wide range of manifestations depending on the number of spines involved, the presence of venom, the depth and location of spine penetration, the duration of spine retention in the skin, and the time before treatment initiation. The most common site of sea urchin injury unsurprisingly is the lower extremities and feet, often in the context of divers and swimmers walking across the sea floor. The hands are another frequently injured site, along with the legs, arms, back, scalp, and even oral mucosa.11

Although clinical history and presentation frequently reveal the mechanism of aquatic injury, patients often are unsure of the agent to which they were exposed and may be unaware of retained foreign bodies. Dermoscopy can distinguish the distinct lines radiating from the core of sea urchin spines from other foreign bodies lodged within the skin.6 It also can be used to locate spines for removal or for their analysis following punch biopsy.6,12 The radiopaque nature of sea urchin spines makes radiography and magnetic resonance imaging useful tools in assessment of periarticular soft-tissue damage and spine removal.8,11,13 Ultrasonography can reveal spines that no longer appear on radiography due to absorption by human tissue.14

Immediate Dermatologic Effects

Sea urchin injuries can be broadly categorized into immediate and delayed reactions. Immediate manifestations of contact with sea urchin spines include localized pain, bleeding, erythema, myalgia, and edema at the site of injury that can last from a few hours to 1 week without proper wound care and spine removal.5 Systemic symptoms ranging from dizziness, lightheadedness, paresthesia, aphonia, paralysis, coma, and death generally are only seen following injuries from venomous species, attachment of pedicellariae, injuries involving neurovascular structures, or penetration by more than 15 spines.7,11

Initial treatment includes soaking the wound in hot water (113 °F [45 °C]) for 30 to 90 minutes and subsequently removing spines and pedicellariae to prevent development of delayed reactions.5,15,16 The compounds in the sea urchin epithelium are heat labile and will be inactivated upon soaking in hot water.16 Extraction of spines can be difficult, as they are brittle and easily break in the skin. Successful removal has been reported using forceps and a hypodermic needle as well as excision; both approaches may require local anesthesia.8,17 Another technique involves freezing the localized area with liquid nitrogen to allow easier removal upon skin blistering.18 Punch biopsy also has been utilized as an effective means of ensuring all spiny fragments are removed.9,19,20 These spines often cause black or purple tattoolike staining at the puncture site, which can persist for a few days after spine extraction.8 Ablation using the erbium-doped:YAG laser may be helpful for removal of associated pigment.21,22

Delayed Dermatologic Effects

Delayed reactions to sea urchin injuries often are attributable to prolonged retention of spines in the skin. Granulomatous reactions typically manifest 2 weeks after injury as firm nonsuppurative nodules with central umbilication and a hyperkeratotic surface.7 These nodules may or may not be painful. Histopathology most often reveals foreign body and sarcoidal-type granulomatous reactions. However, tuberculoid, necrobiotic, and suppurative granulomas also may develop.13 Other microscopic features include inflammatory reactions, suppurative dermatitis, focal necrosis, and microabscesses.23 Wounds with progression to granulomatous disease often require surgical debridement.

Other more serious sequalae can result from involvement of joint capsules, especially in the hands and feet. Sea urchin injury involving joint spaces should be treated aggressively, as progression to inflammatory or infectious synovitis and tenosynovitis can cause irreversible loss of joint function. Inflammatory synovitis occurs 1 to 2 months on average after injury following a period of minimal symptoms and begins as a gradual increase in joint swelling and decrease in range of motion.8 Infectious tenosynovitis manifests quite similarly. Although suppurative etiologies generally progress with a more acute onset, certain infectious organisms (eg, Mycobacterium) take on an indolent course and should not be overlooked as a cause of delayed symptoms.8 The Kavanel cardinal signs are a sensitive tool used in the diagnosis of infectious flexor sheath tenosynovitis.8,24 If suspicion for joint infection is high, emergency referral should be made for debridement and culture-guided antibiotic therapy. Left untreated, infectious tenosynovitis can result in tendon necrosis or rupture, digit necrosis, and systemic infection.24 Patients with joint involvement should be referred to specialty care (eg, hand surgeon), as they often require synovectomy and surgical removal of foreign material.8

From 1 month to 1 year after injury, prolonged granulomatous synovitis of the hand may eventually lead to joint destruction known as “sea urchin arthritis.” These patients present with decreased range of motion and numerous nodules on the hand with a hyperkeratotic surface. Radiography reveals joint space narrowing, osteolysis, subchondral sclerosis, and periosteal reaction. Synovectomy and debridement are necessary to prevent irreversible joint damage or the need for arthrodesis and bone grafting.24

Other Treatment Considerations

Other important considerations in the care of sea urchin spine injuries include assessment of tetanus immunization status and administration of necessary prophylaxis as soon as possible, even in delayed presentations (Table).16,25 Cultures should be taken only if infection is suspected. Prophylactic antibiotics are not recommended unless the patient is immunocompromised or otherwise has impaired wound healing. If a patient presents with systemic symptoms, they should be referred to an emergency care facility for further management.

Final Thoughts

Sea urchin injuries can lead to serious complications if not diagnosed quickly and treated properly. Retention of sea urchin spines in the deep tissues and joint spaces may lead to granulomas, inflammatory and infectious tenosynovitis (including mycobacterial infection), and sea urchin arthritis requiring surgical debridement and possible irreversible joint damage, up to a year after initial injury. Patients should be educated on the possibility of developing these delayed reactions and instructed to seek immediate care. Joint deformities, range-of-motion deficits, and involvement of neurovascular structures should be considered emergent and referred for proper management. Shoes and diving gear offer some protection but are easily penetrable by sharp sea urchin spines. Preventive focus should be aimed at educating patients and providers on the importance of prompt spine removal upon injury. Although dermatologic and systemic manifestations vary widely, a thorough history, physical examination, and appropriate use of imaging modalities can facilitate accurate diagnosis and guide treatment.

Sea urchins—members of the phylum Echinodermata and the class Echinoidea—are spiny marine invertebrates. Their consumption of fleshy algae makes them essential players in maintaining reef ecosystems.1,2 Echinoids, a class that includes heart urchins and sand dollars, are ubiquitous in benthic marine environments, both free floating and rock boring, and inhabit a wide range of latitudes spanning from polar oceans to warm seas.3 Despite their immobility and nonaggression, sea urchin puncture wounds are common among divers, snorkelers, swimmers, surfers, and fishers who accidentally come into contact with their sharp spines. Although the epidemiology of sea urchin exposure and injury is difficult to assess, the American Association of Poison Control Centers’ most recent annual report in 2022 documents approximately 1426 annual aquatic bites and/or envenomations.4

Sea Urchin Morphology and Toxicity

Echinoderms (a term of Greek origin meaning spiny skin) share a radially symmetric calcium carbonate skeleton (termed stereom) that is supported by collagenous ligaments.1 Sea urchins possess spines composed of calcite crystals, which radiate from their body and play a role in locomotion and defense against predators—namely sea otters, starfish/sea stars, wolf eels, and triggerfish, among others (Figure).5 These brittle spines can easily penetrate human skin and subsequently break off the sea urchin body. Most species of sea urchins possess solid spines, but a small percentage (80 of approximately 700 extant species) have hollow spines containing various toxic substances.6 Penetration and systemic absorption of the toxins within these spines can generate severe systemic responses.

The venomous flower urchin (Toxopneustes pileolus), found in the Indian and Pacific oceans, is one of the more common species known to produce a systemic reaction involving neuromuscular blockage.7-9 The most common species harvested off the Pacific coast of the United States—Strongylocentrotus purpuratus (purple sea urchin) and Strongylocentrotus franciscanus (red sea urchins)—are not inherently venomous.8

Purple sea urchin (Strongylocentrotus purpuratus). Photograph courtesy of the South Carolina Aquarium (Charleston, South Carolina).


Both the sea urchin body and spines are covered in a unique epithelium thought to be responsible for the majority of their proinflammatory and pronociceptive properties. Epithelial compounds identified include serotonin, histamines, steroids, glycosides, hemolysins, proteases, and bradykininlike and cholinergic substances.5,7 Additionally, certain sea urchin species possess 3-pronged pincerlike organs at the base of spines called pedicellariae, which are used in feeding.10 Skin penetration by the pedicellariae is especially dangerous, as they tightly adhere to wounds and contain venom-producing organs that allow them to continue injecting toxins after their detachment from the sea urchin body.11

Presentation and Diagnosis of Sea Urchin Injuries

Sea urchin injuries have a wide range of manifestations depending on the number of spines involved, the presence of venom, the depth and location of spine penetration, the duration of spine retention in the skin, and the time before treatment initiation. The most common site of sea urchin injury unsurprisingly is the lower extremities and feet, often in the context of divers and swimmers walking across the sea floor. The hands are another frequently injured site, along with the legs, arms, back, scalp, and even oral mucosa.11

Although clinical history and presentation frequently reveal the mechanism of aquatic injury, patients often are unsure of the agent to which they were exposed and may be unaware of retained foreign bodies. Dermoscopy can distinguish the distinct lines radiating from the core of sea urchin spines from other foreign bodies lodged within the skin.6 It also can be used to locate spines for removal or for their analysis following punch biopsy.6,12 The radiopaque nature of sea urchin spines makes radiography and magnetic resonance imaging useful tools in assessment of periarticular soft-tissue damage and spine removal.8,11,13 Ultrasonography can reveal spines that no longer appear on radiography due to absorption by human tissue.14

Immediate Dermatologic Effects

Sea urchin injuries can be broadly categorized into immediate and delayed reactions. Immediate manifestations of contact with sea urchin spines include localized pain, bleeding, erythema, myalgia, and edema at the site of injury that can last from a few hours to 1 week without proper wound care and spine removal.5 Systemic symptoms ranging from dizziness, lightheadedness, paresthesia, aphonia, paralysis, coma, and death generally are only seen following injuries from venomous species, attachment of pedicellariae, injuries involving neurovascular structures, or penetration by more than 15 spines.7,11

Initial treatment includes soaking the wound in hot water (113 °F [45 °C]) for 30 to 90 minutes and subsequently removing spines and pedicellariae to prevent development of delayed reactions.5,15,16 The compounds in the sea urchin epithelium are heat labile and will be inactivated upon soaking in hot water.16 Extraction of spines can be difficult, as they are brittle and easily break in the skin. Successful removal has been reported using forceps and a hypodermic needle as well as excision; both approaches may require local anesthesia.8,17 Another technique involves freezing the localized area with liquid nitrogen to allow easier removal upon skin blistering.18 Punch biopsy also has been utilized as an effective means of ensuring all spiny fragments are removed.9,19,20 These spines often cause black or purple tattoolike staining at the puncture site, which can persist for a few days after spine extraction.8 Ablation using the erbium-doped:YAG laser may be helpful for removal of associated pigment.21,22

Delayed Dermatologic Effects

Delayed reactions to sea urchin injuries often are attributable to prolonged retention of spines in the skin. Granulomatous reactions typically manifest 2 weeks after injury as firm nonsuppurative nodules with central umbilication and a hyperkeratotic surface.7 These nodules may or may not be painful. Histopathology most often reveals foreign body and sarcoidal-type granulomatous reactions. However, tuberculoid, necrobiotic, and suppurative granulomas also may develop.13 Other microscopic features include inflammatory reactions, suppurative dermatitis, focal necrosis, and microabscesses.23 Wounds with progression to granulomatous disease often require surgical debridement.

Other more serious sequalae can result from involvement of joint capsules, especially in the hands and feet. Sea urchin injury involving joint spaces should be treated aggressively, as progression to inflammatory or infectious synovitis and tenosynovitis can cause irreversible loss of joint function. Inflammatory synovitis occurs 1 to 2 months on average after injury following a period of minimal symptoms and begins as a gradual increase in joint swelling and decrease in range of motion.8 Infectious tenosynovitis manifests quite similarly. Although suppurative etiologies generally progress with a more acute onset, certain infectious organisms (eg, Mycobacterium) take on an indolent course and should not be overlooked as a cause of delayed symptoms.8 The Kavanel cardinal signs are a sensitive tool used in the diagnosis of infectious flexor sheath tenosynovitis.8,24 If suspicion for joint infection is high, emergency referral should be made for debridement and culture-guided antibiotic therapy. Left untreated, infectious tenosynovitis can result in tendon necrosis or rupture, digit necrosis, and systemic infection.24 Patients with joint involvement should be referred to specialty care (eg, hand surgeon), as they often require synovectomy and surgical removal of foreign material.8

From 1 month to 1 year after injury, prolonged granulomatous synovitis of the hand may eventually lead to joint destruction known as “sea urchin arthritis.” These patients present with decreased range of motion and numerous nodules on the hand with a hyperkeratotic surface. Radiography reveals joint space narrowing, osteolysis, subchondral sclerosis, and periosteal reaction. Synovectomy and debridement are necessary to prevent irreversible joint damage or the need for arthrodesis and bone grafting.24

Other Treatment Considerations

Other important considerations in the care of sea urchin spine injuries include assessment of tetanus immunization status and administration of necessary prophylaxis as soon as possible, even in delayed presentations (Table).16,25 Cultures should be taken only if infection is suspected. Prophylactic antibiotics are not recommended unless the patient is immunocompromised or otherwise has impaired wound healing. If a patient presents with systemic symptoms, they should be referred to an emergency care facility for further management.

Final Thoughts

Sea urchin injuries can lead to serious complications if not diagnosed quickly and treated properly. Retention of sea urchin spines in the deep tissues and joint spaces may lead to granulomas, inflammatory and infectious tenosynovitis (including mycobacterial infection), and sea urchin arthritis requiring surgical debridement and possible irreversible joint damage, up to a year after initial injury. Patients should be educated on the possibility of developing these delayed reactions and instructed to seek immediate care. Joint deformities, range-of-motion deficits, and involvement of neurovascular structures should be considered emergent and referred for proper management. Shoes and diving gear offer some protection but are easily penetrable by sharp sea urchin spines. Preventive focus should be aimed at educating patients and providers on the importance of prompt spine removal upon injury. Although dermatologic and systemic manifestations vary widely, a thorough history, physical examination, and appropriate use of imaging modalities can facilitate accurate diagnosis and guide treatment.

References
  1. Amemiya CT, Miyake T, Rast JP. Echinoderms. Curr Biol. 2005;15:R944-R946. doi:10.1016/j.cub.2005.11.026
  2. Koch NM, Coppard SE, Lessios HA, et al. A phylogenomic resolution of the sea urchin tree of life. BMC Evol Biol. 2018;18:189. doi:10.1186/s12862-018-1300-4
  3. Amir Y, Insler M, Giller A, et al. Senescence and longevity of sea urchins. Genes (Basel). 2020;11:573. doi:10.3390/genes11050573
  4. Gummin DD, Mowry JB, Beuhler MC, et al. 2022 Annual Report of the National Poison Data System® (NPDS) from America's Poison Centers®: 40th annual report. Clin Toxicol (Phila). 2023;61:717-939. doi:10.1080/15563650.2023.2268981
  5. Gelman Y, Kong EL, Murphy-Lavoie HM. Sea urchin toxicity. In: StatPearls [Internet]. StatPearls Publishing; 2021.
  6. Suarez-Conde MF, Vallone MG, González VM, et al. Sea urchin skin lesions: a case report. Dermatol Pract Concept. 2021;11:E2021009. doi:10.5826/dpc.1102a09
  7. Al-Kathiri L, Al-Najjar T, Sulaiman I. Sea urchin granuloma of the hands: a case report. Oman Med J. 2019;34:350-353. doi:10.5001/omj.2019.68
  8. Dahl WJ, Jebson P, Louis DS. Sea urchin injuries to the hand: a case report and review of the literature. Iowa Orthop J. 2010;30:153-156.
  9. Hatakeyama T, Ichise A, Unno H, et al. Carbohydrate recognition by the rhamnose-binding lectin SUL-I with a novel three-domain structure isolated from the venom of globiferous pedicellariae of the flower sea urchin Toxopneustes pileolus. Protein Sci. 2017;26:1574-1583. doi:10.1002/pro.3185
  10. Balhara KS, Stolbach A. Marine envenomations. Emerg Med Clin North Am. 2014;32:223-243. doi:10.1016/j.emc.2013.09.009
  11. Schwartz Z, Cohen M, Lipner SR. Sea urchin injuries: a review and clinical approach algorithm. J Dermatolog Treat. 2021;32:150-156. doi:10.1080/09546634.2019.1638884
  12. Park SJ, Park JW, Choi SY, et al. Use of dermoscopy after punch removal of a veiled sea urchin spine. Dermatol Ther. 2021;34:E14947. doi:10.1111/dth.14947
  13. Wada T, Soma T, Gaman K, et al. Sea urchin spine arthritis of the hand. J Hand Surg Am. 2008;33:398-401. doi:10.1016/j.jhsa.2007.11.016
  14. Groleau S, Chhem RK, Younge D, et al. Ultrasonography of foreign-body tenosynovitis. Can Assoc Radiol J. 1992;43:454-456. 
  15. Hornbeak KB, Auerbach PS. Marine envenomation. Emerg Med Clin North Am. 2017;35:321-337. doi:10.1016/j.emc.2016.12.004
  16. Noonburg GE. Management of extremity trauma and related infections occurring in the aquatic environment. J Am Acad Orthop Surg. 2005;13:243-253. doi:10.5435/00124635-200507000-00004
  17. Haddad Junior V. Observation of initial clinical manifestations and repercussions from the treatment of 314 human injuries caused by black sea urchins (Echinometra lucunter) on the southeastern Brazilian coast. Rev Soc Bras Med Trop. 2012;45:390-392. doi:10.1590/s0037-86822012000300021
  18. Gargus MD, Morohashi DK. A sea-urchin spine chilling remedy. N Engl J Med. 2012;367:1867-1868. doi:10.1056/NEJMc1209382
  19. Sjøberg T, de Weerd L. The usefulness of a skin biopsy punch to remove sea urchin spines. ANZ J Surg. 2010;80:383. doi:10.1111/j.1445-2197.2010.05296.x
  20. Cardenas-de la Garza JA, Cuellar-Barboza A, Ancer-Arellano J, et al. Classic dermatological tools: foreign body removal with punch biopsy.J Am Acad Dermatol. 2019;81:E93-E94. doi:10.1016/j.jaad.2018.10.038
  21. Gungor S, Tarikçi N, Gokdemir G. Removal of sea urchin spines using erbium-doped yttrium aluminum garnet ablation. Dermatol Surg. 2012;38:508-510. doi:10.1111/j.1524-4725.2011.02259.x
  22. Böer A, Ochsendorf FR, Beier C, et al. Effective removal of sea-urchin spines by erbium:YAG laser ablation. Br J Dermatol. 2001;145:169-170. doi:10.1046/j.1365-2133.2001.04306.x
  23. De La Torre C, Toribio J. Sea-urchin granuloma: histologic profile. a pathologic study of 50 biopsies. J Cutan Pathol. 2001;28:223-228. doi:10.1034/j.1600-0560.2001.028005223.x
  24. Yi A, Kennedy C, Chia B, et al. Radiographic soft tissue thickness differentiating pyogenic flexor tenosynovitis from other finger infections. J Hand Surg Am. 2019;44:394-399. doi:10.1016/j.jhsa.2019.01.013
  25. Callison C, Nguyen H. Tetanus prophylaxis. In: StatPearls [Internet]. StatPearls Publishing; 2022.
References
  1. Amemiya CT, Miyake T, Rast JP. Echinoderms. Curr Biol. 2005;15:R944-R946. doi:10.1016/j.cub.2005.11.026
  2. Koch NM, Coppard SE, Lessios HA, et al. A phylogenomic resolution of the sea urchin tree of life. BMC Evol Biol. 2018;18:189. doi:10.1186/s12862-018-1300-4
  3. Amir Y, Insler M, Giller A, et al. Senescence and longevity of sea urchins. Genes (Basel). 2020;11:573. doi:10.3390/genes11050573
  4. Gummin DD, Mowry JB, Beuhler MC, et al. 2022 Annual Report of the National Poison Data System® (NPDS) from America's Poison Centers®: 40th annual report. Clin Toxicol (Phila). 2023;61:717-939. doi:10.1080/15563650.2023.2268981
  5. Gelman Y, Kong EL, Murphy-Lavoie HM. Sea urchin toxicity. In: StatPearls [Internet]. StatPearls Publishing; 2021.
  6. Suarez-Conde MF, Vallone MG, González VM, et al. Sea urchin skin lesions: a case report. Dermatol Pract Concept. 2021;11:E2021009. doi:10.5826/dpc.1102a09
  7. Al-Kathiri L, Al-Najjar T, Sulaiman I. Sea urchin granuloma of the hands: a case report. Oman Med J. 2019;34:350-353. doi:10.5001/omj.2019.68
  8. Dahl WJ, Jebson P, Louis DS. Sea urchin injuries to the hand: a case report and review of the literature. Iowa Orthop J. 2010;30:153-156.
  9. Hatakeyama T, Ichise A, Unno H, et al. Carbohydrate recognition by the rhamnose-binding lectin SUL-I with a novel three-domain structure isolated from the venom of globiferous pedicellariae of the flower sea urchin Toxopneustes pileolus. Protein Sci. 2017;26:1574-1583. doi:10.1002/pro.3185
  10. Balhara KS, Stolbach A. Marine envenomations. Emerg Med Clin North Am. 2014;32:223-243. doi:10.1016/j.emc.2013.09.009
  11. Schwartz Z, Cohen M, Lipner SR. Sea urchin injuries: a review and clinical approach algorithm. J Dermatolog Treat. 2021;32:150-156. doi:10.1080/09546634.2019.1638884
  12. Park SJ, Park JW, Choi SY, et al. Use of dermoscopy after punch removal of a veiled sea urchin spine. Dermatol Ther. 2021;34:E14947. doi:10.1111/dth.14947
  13. Wada T, Soma T, Gaman K, et al. Sea urchin spine arthritis of the hand. J Hand Surg Am. 2008;33:398-401. doi:10.1016/j.jhsa.2007.11.016
  14. Groleau S, Chhem RK, Younge D, et al. Ultrasonography of foreign-body tenosynovitis. Can Assoc Radiol J. 1992;43:454-456. 
  15. Hornbeak KB, Auerbach PS. Marine envenomation. Emerg Med Clin North Am. 2017;35:321-337. doi:10.1016/j.emc.2016.12.004
  16. Noonburg GE. Management of extremity trauma and related infections occurring in the aquatic environment. J Am Acad Orthop Surg. 2005;13:243-253. doi:10.5435/00124635-200507000-00004
  17. Haddad Junior V. Observation of initial clinical manifestations and repercussions from the treatment of 314 human injuries caused by black sea urchins (Echinometra lucunter) on the southeastern Brazilian coast. Rev Soc Bras Med Trop. 2012;45:390-392. doi:10.1590/s0037-86822012000300021
  18. Gargus MD, Morohashi DK. A sea-urchin spine chilling remedy. N Engl J Med. 2012;367:1867-1868. doi:10.1056/NEJMc1209382
  19. Sjøberg T, de Weerd L. The usefulness of a skin biopsy punch to remove sea urchin spines. ANZ J Surg. 2010;80:383. doi:10.1111/j.1445-2197.2010.05296.x
  20. Cardenas-de la Garza JA, Cuellar-Barboza A, Ancer-Arellano J, et al. Classic dermatological tools: foreign body removal with punch biopsy.J Am Acad Dermatol. 2019;81:E93-E94. doi:10.1016/j.jaad.2018.10.038
  21. Gungor S, Tarikçi N, Gokdemir G. Removal of sea urchin spines using erbium-doped yttrium aluminum garnet ablation. Dermatol Surg. 2012;38:508-510. doi:10.1111/j.1524-4725.2011.02259.x
  22. Böer A, Ochsendorf FR, Beier C, et al. Effective removal of sea-urchin spines by erbium:YAG laser ablation. Br J Dermatol. 2001;145:169-170. doi:10.1046/j.1365-2133.2001.04306.x
  23. De La Torre C, Toribio J. Sea-urchin granuloma: histologic profile. a pathologic study of 50 biopsies. J Cutan Pathol. 2001;28:223-228. doi:10.1034/j.1600-0560.2001.028005223.x
  24. Yi A, Kennedy C, Chia B, et al. Radiographic soft tissue thickness differentiating pyogenic flexor tenosynovitis from other finger infections. J Hand Surg Am. 2019;44:394-399. doi:10.1016/j.jhsa.2019.01.013
  25. Callison C, Nguyen H. Tetanus prophylaxis. In: StatPearls [Internet]. StatPearls Publishing; 2022.
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Practice Points

  • Sea urchin spines easily become embedded in human skin upon contact and cause localized pain, edema, and black or purple pinpoint markings.
  • Immediate treatment includes soaking in hot water (113 12°F [45 12°C]) for 30 to 90 minutes to inactivate proinflammatory compounds, followed by extraction of the spines.
  • Successful methods of spine removal include the use of forceps and a hypodermic needle, as well as excision, liquid nitrogen, and punch biopsy.
  • Prompt removal of the spines can reduce the incidence of delayed granulomatous reactions, synovitis, and sea urchin arthritis.
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Delivery of Care: The Ethical Imperative in Healthcare

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Thu, 06/13/2024 - 12:57

The ethical imperative in healthcare necessitates equitable delivery of care to all individuals, regardless of their socio-economic status or insurance coverage. This principle is rooted in the concept of justice and is crucial to achieving health equity.

As gastroenterologists, despite our various practice settings, we have seen the harmful effects of economic and social disparities on health outcomes. We must therefore ensure that we acknowledge the existence of these disparities, and then begin to provide a framework that allows us to ethically and successfully navigate these complexities for our patients and our affiliated structures.

RaShun Focus Minded Photo
Dr. Aja McCutchen

The following cases illustrate the complexities and ethical dilemmas that gastroenterology and hepatology healthcare professionals encounter in delivering care within the traditional healthcare system.

  • Case 1: A 44-year-old male presents to the hospital with intermittent rectal bleeding every few weeks without associated abdominal pain or weight loss and not associated with straining. He has bowel movements every 2-3 days. There is no family history of underlying gastrointestinal disease or associated neoplasm. He is accompanied at the time of the interview by his coworker who offered to drive him to the hospital as he is having personal car trouble. Physical examination reveals normal hemodynamics, abdomen is benign, a digital rectal exam reveals small internal hemorrhoids without pain. Hemoglobin is 10, MCV 85. There is scant blood on the glove. He is uninsured. A GI consult is placed to determine the disposition of the patient. The resident on service suggests outpatient follow-up given low risk of clinical deterioration.
  • Case 2: A 28-year-old woman postpartum 6 weeks presents in the office with a history of ulcerative colitis which was diagnosed 2 years prior. She was initially placed on steroid therapy. She underwent a colonoscopy at the time of her diagnosis and was following with a gastroenterologist at which time she was found to have moderate left-sided disease with a modified Mayo score of 9. She complains of urgency and rectal bleeding. She saw a gastroenterologist during her pregnancy and was placed on oral mesalamine, which she remains on at the time of evaluation. Once her physical examination is completed and laboratory values are reviewed, you begin to discuss advanced therapies including biologics as she has failed conventional therapies.
  • Case 3: You receive a phone call from an outside hospital about a potential transfer for a 46-year-old male who is an immigrant of unknown citizenship status with fulminant liver failure. He meets all criteria including encephalopathy and coagulopathy. He drinks only socially. His secondary liver workup for extensive disease including ceruloplasmin remains pending. Viral hepatology serologies and autoimmune serologies are negative.

Challenges to the Delivery of Equitable Care

These cases underscore the challenges of delivering equitable care within a system that often fails to address the social determinants of health (SDOH). The disparity in the evaluation and treatment of patients based on insurance status not only affects patient outcomes, but also emphasizes the ethical dilemma of balancing cost with population health management.

Ironwood Pharmaceuticals
Dr. Mena Boules

The introduction of measures SDOH-1 and SDOH-2 by the Centers for Medicare & Medicaid Services in the 2023 IPPS Final Rule is a step towards requiring hospitals to systematically collect patient-level SDOH data, aiming to establish meaningful collaborations between healthcare providers and community-based organizations for whole-person care.1 The primary goal is to allow ecosystems to collect patient-level social risk factors followed by the creation of meaningful collaboration between healthcare providers and the community-based organizations.

The office settings may or may not implement the SDOH and the current electronic medical record systems. However, from a social history standpoint and certainly from a decision standpoint, the impact of SDOH is realized in all settings.
 

Interplay of SDOH and Ethical Considerations

The recognition of social determinants of health is crucial for ethical healthcare delivery. In the first case, considering the patient’s identified social determinants of health — including lack of insurance and transportation, combined with the rising incidence of colorectal cancer in individuals under 55 — an argument could be made for admitting the patient under observation for inpatient colonoscopy.

Data have shown disparities in treatment and referrals in emergency care setting for Black patients with rectal bleeding.2 It is imperative that we recognize these existing disparities in diagnosis and outcomes, along with determining SDOH to appropriately come to a final disposition. This approach aligns with the principle of justice and the imperative to deliver equitable care.

In the third case study, we have a patient facing the life-or-death situation of fulminant liver failure. He requires an expeditious decision to be made about transfer candidacy for liver transplant evaluation by the hepatology team.
 

Impact of Insurance Status on Healthcare Access

Insurance status significantly influences access to healthcare and disparities in treatment outcomes. As seen in case 2 and case 3, our therapies often hinge upon access.

In the inflammatory bowel disease (IBD) case, the therapy that we will choose for our IBD patient may be more influenced by access than efficacy. In a national sample of children with Crohn’s disease, publicly insured children were more likely to receive a biologic within 18 months of diagnosis compared to children with private insurance.3 This would suggest that those with private insurance perhaps experience increased barriers.

In the IBD case that we presented here, we do have a publicly insured woman who will face a potential loss of her Medicaid coverage. Our therapeutic decision will therefore not just rely on risk stratification and individualized approach, but rather the programs that are put in place by our pharmaceutical partners to support a future self-pay patient. This may or may not be favorable to her outcome. This discrepancy points to systemic inequalities in healthcare access and the need for policies that ensure equitable treatment for all, regardless of insurance status.
 

Conclusion

The delivery of care in healthcare is an ethical imperative that demands equity and justice. The cases discussed above illustrate the complex interplay between socioeconomic factors, insurance status, and the ethical challenges in providing equitable care.

Systematic efforts to address social determinants of health, as mandated by recent CMS measures, along with a commitment to ethical principles, are essential steps toward reducing disparities and ensuring that all individuals receive the care they need. As healthcare expenditures continue to rise, particularly in areas like gastrointestinal health, addressing these ethical and systemic challenges becomes even more critical for the sustainability of the healthcare system and the well-being of the population it serves.

Gastrointestinal healthcare expenditures totaled $119.6 billion in 2018. Annually there were more than 36.8 million ambulatory visits for GI symptoms and 43.4 million ambulatory visits with primary GI diagnosis.4 The use of higher-acuity settings and lack of continuity of care, and the under-recognition and lack of longitudinal framework to follow those families at risk continue to compromise our healthcare system. We must begin to create a framework to provide equitable care for which the cornerstone should be those identified social determinants of health.

Dr. McCutchen is a gastroenterologist at United Digestive, Atlanta, Georgia. She is vice chair of the AGA Research Foundation. Dr. Boules is vice president of global medical and scientific affairs at Ironwood Pharmaceuticals, Cleveland, Ohio.

References

1. www.govinfo.gov/content/pkg/FR-2022-08-10/pdf/2022-16472.pdf.

2. Shields HM et al. Disparities in evaluation of patients with rectal bleeding 40 years and older. Clin Gastroenterol Hepatol. 2014 Apr. doi: 10.1016/j.cgh.2013.07.008.

3. Quiros JA et al. Insurance type influences access to biologics and healthcare utilization in pediatric Crohn’s disease. Crohns Colitis 360. 2021 Aug. doi: 10.1093/crocol/otab057.

4. Peery AF et al. Burden and cost of gastrointestinal, liver, and pancreatic diseases in the United States: Update 2021. Gastroenterology. 2022 Feb. doi: 10.1053/j.gastro.2021.10.017.

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The ethical imperative in healthcare necessitates equitable delivery of care to all individuals, regardless of their socio-economic status or insurance coverage. This principle is rooted in the concept of justice and is crucial to achieving health equity.

As gastroenterologists, despite our various practice settings, we have seen the harmful effects of economic and social disparities on health outcomes. We must therefore ensure that we acknowledge the existence of these disparities, and then begin to provide a framework that allows us to ethically and successfully navigate these complexities for our patients and our affiliated structures.

RaShun Focus Minded Photo
Dr. Aja McCutchen

The following cases illustrate the complexities and ethical dilemmas that gastroenterology and hepatology healthcare professionals encounter in delivering care within the traditional healthcare system.

  • Case 1: A 44-year-old male presents to the hospital with intermittent rectal bleeding every few weeks without associated abdominal pain or weight loss and not associated with straining. He has bowel movements every 2-3 days. There is no family history of underlying gastrointestinal disease or associated neoplasm. He is accompanied at the time of the interview by his coworker who offered to drive him to the hospital as he is having personal car trouble. Physical examination reveals normal hemodynamics, abdomen is benign, a digital rectal exam reveals small internal hemorrhoids without pain. Hemoglobin is 10, MCV 85. There is scant blood on the glove. He is uninsured. A GI consult is placed to determine the disposition of the patient. The resident on service suggests outpatient follow-up given low risk of clinical deterioration.
  • Case 2: A 28-year-old woman postpartum 6 weeks presents in the office with a history of ulcerative colitis which was diagnosed 2 years prior. She was initially placed on steroid therapy. She underwent a colonoscopy at the time of her diagnosis and was following with a gastroenterologist at which time she was found to have moderate left-sided disease with a modified Mayo score of 9. She complains of urgency and rectal bleeding. She saw a gastroenterologist during her pregnancy and was placed on oral mesalamine, which she remains on at the time of evaluation. Once her physical examination is completed and laboratory values are reviewed, you begin to discuss advanced therapies including biologics as she has failed conventional therapies.
  • Case 3: You receive a phone call from an outside hospital about a potential transfer for a 46-year-old male who is an immigrant of unknown citizenship status with fulminant liver failure. He meets all criteria including encephalopathy and coagulopathy. He drinks only socially. His secondary liver workup for extensive disease including ceruloplasmin remains pending. Viral hepatology serologies and autoimmune serologies are negative.

Challenges to the Delivery of Equitable Care

These cases underscore the challenges of delivering equitable care within a system that often fails to address the social determinants of health (SDOH). The disparity in the evaluation and treatment of patients based on insurance status not only affects patient outcomes, but also emphasizes the ethical dilemma of balancing cost with population health management.

Ironwood Pharmaceuticals
Dr. Mena Boules

The introduction of measures SDOH-1 and SDOH-2 by the Centers for Medicare & Medicaid Services in the 2023 IPPS Final Rule is a step towards requiring hospitals to systematically collect patient-level SDOH data, aiming to establish meaningful collaborations between healthcare providers and community-based organizations for whole-person care.1 The primary goal is to allow ecosystems to collect patient-level social risk factors followed by the creation of meaningful collaboration between healthcare providers and the community-based organizations.

The office settings may or may not implement the SDOH and the current electronic medical record systems. However, from a social history standpoint and certainly from a decision standpoint, the impact of SDOH is realized in all settings.
 

Interplay of SDOH and Ethical Considerations

The recognition of social determinants of health is crucial for ethical healthcare delivery. In the first case, considering the patient’s identified social determinants of health — including lack of insurance and transportation, combined with the rising incidence of colorectal cancer in individuals under 55 — an argument could be made for admitting the patient under observation for inpatient colonoscopy.

Data have shown disparities in treatment and referrals in emergency care setting for Black patients with rectal bleeding.2 It is imperative that we recognize these existing disparities in diagnosis and outcomes, along with determining SDOH to appropriately come to a final disposition. This approach aligns with the principle of justice and the imperative to deliver equitable care.

In the third case study, we have a patient facing the life-or-death situation of fulminant liver failure. He requires an expeditious decision to be made about transfer candidacy for liver transplant evaluation by the hepatology team.
 

Impact of Insurance Status on Healthcare Access

Insurance status significantly influences access to healthcare and disparities in treatment outcomes. As seen in case 2 and case 3, our therapies often hinge upon access.

In the inflammatory bowel disease (IBD) case, the therapy that we will choose for our IBD patient may be more influenced by access than efficacy. In a national sample of children with Crohn’s disease, publicly insured children were more likely to receive a biologic within 18 months of diagnosis compared to children with private insurance.3 This would suggest that those with private insurance perhaps experience increased barriers.

In the IBD case that we presented here, we do have a publicly insured woman who will face a potential loss of her Medicaid coverage. Our therapeutic decision will therefore not just rely on risk stratification and individualized approach, but rather the programs that are put in place by our pharmaceutical partners to support a future self-pay patient. This may or may not be favorable to her outcome. This discrepancy points to systemic inequalities in healthcare access and the need for policies that ensure equitable treatment for all, regardless of insurance status.
 

Conclusion

The delivery of care in healthcare is an ethical imperative that demands equity and justice. The cases discussed above illustrate the complex interplay between socioeconomic factors, insurance status, and the ethical challenges in providing equitable care.

Systematic efforts to address social determinants of health, as mandated by recent CMS measures, along with a commitment to ethical principles, are essential steps toward reducing disparities and ensuring that all individuals receive the care they need. As healthcare expenditures continue to rise, particularly in areas like gastrointestinal health, addressing these ethical and systemic challenges becomes even more critical for the sustainability of the healthcare system and the well-being of the population it serves.

Gastrointestinal healthcare expenditures totaled $119.6 billion in 2018. Annually there were more than 36.8 million ambulatory visits for GI symptoms and 43.4 million ambulatory visits with primary GI diagnosis.4 The use of higher-acuity settings and lack of continuity of care, and the under-recognition and lack of longitudinal framework to follow those families at risk continue to compromise our healthcare system. We must begin to create a framework to provide equitable care for which the cornerstone should be those identified social determinants of health.

Dr. McCutchen is a gastroenterologist at United Digestive, Atlanta, Georgia. She is vice chair of the AGA Research Foundation. Dr. Boules is vice president of global medical and scientific affairs at Ironwood Pharmaceuticals, Cleveland, Ohio.

References

1. www.govinfo.gov/content/pkg/FR-2022-08-10/pdf/2022-16472.pdf.

2. Shields HM et al. Disparities in evaluation of patients with rectal bleeding 40 years and older. Clin Gastroenterol Hepatol. 2014 Apr. doi: 10.1016/j.cgh.2013.07.008.

3. Quiros JA et al. Insurance type influences access to biologics and healthcare utilization in pediatric Crohn’s disease. Crohns Colitis 360. 2021 Aug. doi: 10.1093/crocol/otab057.

4. Peery AF et al. Burden and cost of gastrointestinal, liver, and pancreatic diseases in the United States: Update 2021. Gastroenterology. 2022 Feb. doi: 10.1053/j.gastro.2021.10.017.

The ethical imperative in healthcare necessitates equitable delivery of care to all individuals, regardless of their socio-economic status or insurance coverage. This principle is rooted in the concept of justice and is crucial to achieving health equity.

As gastroenterologists, despite our various practice settings, we have seen the harmful effects of economic and social disparities on health outcomes. We must therefore ensure that we acknowledge the existence of these disparities, and then begin to provide a framework that allows us to ethically and successfully navigate these complexities for our patients and our affiliated structures.

RaShun Focus Minded Photo
Dr. Aja McCutchen

The following cases illustrate the complexities and ethical dilemmas that gastroenterology and hepatology healthcare professionals encounter in delivering care within the traditional healthcare system.

  • Case 1: A 44-year-old male presents to the hospital with intermittent rectal bleeding every few weeks without associated abdominal pain or weight loss and not associated with straining. He has bowel movements every 2-3 days. There is no family history of underlying gastrointestinal disease or associated neoplasm. He is accompanied at the time of the interview by his coworker who offered to drive him to the hospital as he is having personal car trouble. Physical examination reveals normal hemodynamics, abdomen is benign, a digital rectal exam reveals small internal hemorrhoids without pain. Hemoglobin is 10, MCV 85. There is scant blood on the glove. He is uninsured. A GI consult is placed to determine the disposition of the patient. The resident on service suggests outpatient follow-up given low risk of clinical deterioration.
  • Case 2: A 28-year-old woman postpartum 6 weeks presents in the office with a history of ulcerative colitis which was diagnosed 2 years prior. She was initially placed on steroid therapy. She underwent a colonoscopy at the time of her diagnosis and was following with a gastroenterologist at which time she was found to have moderate left-sided disease with a modified Mayo score of 9. She complains of urgency and rectal bleeding. She saw a gastroenterologist during her pregnancy and was placed on oral mesalamine, which she remains on at the time of evaluation. Once her physical examination is completed and laboratory values are reviewed, you begin to discuss advanced therapies including biologics as she has failed conventional therapies.
  • Case 3: You receive a phone call from an outside hospital about a potential transfer for a 46-year-old male who is an immigrant of unknown citizenship status with fulminant liver failure. He meets all criteria including encephalopathy and coagulopathy. He drinks only socially. His secondary liver workup for extensive disease including ceruloplasmin remains pending. Viral hepatology serologies and autoimmune serologies are negative.

Challenges to the Delivery of Equitable Care

These cases underscore the challenges of delivering equitable care within a system that often fails to address the social determinants of health (SDOH). The disparity in the evaluation and treatment of patients based on insurance status not only affects patient outcomes, but also emphasizes the ethical dilemma of balancing cost with population health management.

Ironwood Pharmaceuticals
Dr. Mena Boules

The introduction of measures SDOH-1 and SDOH-2 by the Centers for Medicare & Medicaid Services in the 2023 IPPS Final Rule is a step towards requiring hospitals to systematically collect patient-level SDOH data, aiming to establish meaningful collaborations between healthcare providers and community-based organizations for whole-person care.1 The primary goal is to allow ecosystems to collect patient-level social risk factors followed by the creation of meaningful collaboration between healthcare providers and the community-based organizations.

The office settings may or may not implement the SDOH and the current electronic medical record systems. However, from a social history standpoint and certainly from a decision standpoint, the impact of SDOH is realized in all settings.
 

Interplay of SDOH and Ethical Considerations

The recognition of social determinants of health is crucial for ethical healthcare delivery. In the first case, considering the patient’s identified social determinants of health — including lack of insurance and transportation, combined with the rising incidence of colorectal cancer in individuals under 55 — an argument could be made for admitting the patient under observation for inpatient colonoscopy.

Data have shown disparities in treatment and referrals in emergency care setting for Black patients with rectal bleeding.2 It is imperative that we recognize these existing disparities in diagnosis and outcomes, along with determining SDOH to appropriately come to a final disposition. This approach aligns with the principle of justice and the imperative to deliver equitable care.

In the third case study, we have a patient facing the life-or-death situation of fulminant liver failure. He requires an expeditious decision to be made about transfer candidacy for liver transplant evaluation by the hepatology team.
 

Impact of Insurance Status on Healthcare Access

Insurance status significantly influences access to healthcare and disparities in treatment outcomes. As seen in case 2 and case 3, our therapies often hinge upon access.

In the inflammatory bowel disease (IBD) case, the therapy that we will choose for our IBD patient may be more influenced by access than efficacy. In a national sample of children with Crohn’s disease, publicly insured children were more likely to receive a biologic within 18 months of diagnosis compared to children with private insurance.3 This would suggest that those with private insurance perhaps experience increased barriers.

In the IBD case that we presented here, we do have a publicly insured woman who will face a potential loss of her Medicaid coverage. Our therapeutic decision will therefore not just rely on risk stratification and individualized approach, but rather the programs that are put in place by our pharmaceutical partners to support a future self-pay patient. This may or may not be favorable to her outcome. This discrepancy points to systemic inequalities in healthcare access and the need for policies that ensure equitable treatment for all, regardless of insurance status.
 

Conclusion

The delivery of care in healthcare is an ethical imperative that demands equity and justice. The cases discussed above illustrate the complex interplay between socioeconomic factors, insurance status, and the ethical challenges in providing equitable care.

Systematic efforts to address social determinants of health, as mandated by recent CMS measures, along with a commitment to ethical principles, are essential steps toward reducing disparities and ensuring that all individuals receive the care they need. As healthcare expenditures continue to rise, particularly in areas like gastrointestinal health, addressing these ethical and systemic challenges becomes even more critical for the sustainability of the healthcare system and the well-being of the population it serves.

Gastrointestinal healthcare expenditures totaled $119.6 billion in 2018. Annually there were more than 36.8 million ambulatory visits for GI symptoms and 43.4 million ambulatory visits with primary GI diagnosis.4 The use of higher-acuity settings and lack of continuity of care, and the under-recognition and lack of longitudinal framework to follow those families at risk continue to compromise our healthcare system. We must begin to create a framework to provide equitable care for which the cornerstone should be those identified social determinants of health.

Dr. McCutchen is a gastroenterologist at United Digestive, Atlanta, Georgia. She is vice chair of the AGA Research Foundation. Dr. Boules is vice president of global medical and scientific affairs at Ironwood Pharmaceuticals, Cleveland, Ohio.

References

1. www.govinfo.gov/content/pkg/FR-2022-08-10/pdf/2022-16472.pdf.

2. Shields HM et al. Disparities in evaluation of patients with rectal bleeding 40 years and older. Clin Gastroenterol Hepatol. 2014 Apr. doi: 10.1016/j.cgh.2013.07.008.

3. Quiros JA et al. Insurance type influences access to biologics and healthcare utilization in pediatric Crohn’s disease. Crohns Colitis 360. 2021 Aug. doi: 10.1093/crocol/otab057.

4. Peery AF et al. Burden and cost of gastrointestinal, liver, and pancreatic diseases in the United States: Update 2021. Gastroenterology. 2022 Feb. doi: 10.1053/j.gastro.2021.10.017.

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Overuse of Hematocrit Testing After Elective General Surgery at a Veterans Affairs Medical Center

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It is common practice to routinely measure postoperative hematocrit levels at US Department of Veterans Affairs (VA) hospitals for a wide range of elective general surgeries. While hematocrit measurement is a low-cost test, the high frequency with which these tests are performed may drastically increase overall costs.

Numerous studies have suggested that physicians overuse laboratory testing.1-10 Kohli and colleagues recommended that the routine practice of obtaining postoperative hematocrit tests following elective gynecologic surgery be abandoned.1 A similar recommendation was made by Olus and colleagues after studying uneventful, unplanned cesarean sections and by Wu and colleagues after investigating routine laboratory tests post total hip arthroplasty.2,3

To our knowledge, a study assessing routine postoperative hematocrit testing in elective general surgery has not yet been conducted. Many laboratory tests ordered in the perioperative period are not indicated, including complete blood count (CBC), electrolytes, and coagulation studies.4 Based on the results of these studies, we expected that the routine measurement of postoperative hematocrit levels after elective general surgeries at VA medical centers would not be cost effective. A PubMed search for articles published from 1990 to 2023 using the search terms “hematocrit,” “hemoglobin,” “general,” “surgery,” “routine,” and “cost” or “cost-effectiveness,” suggests that the clinical usefulness of postoperative hematocrit testing has not been well studied in the general surgery setting. The purpose of this study was to determine the clinical utility and associated cost of measuring routine postoperative hematocrit levels in order to generate a guide as to when the practice is warranted following common elective general surgery.

 

Although gynecologic textbooks may describe recommendations of routine hematocrit checking after elective gynecologic operations, one has difficulty finding the same recommendations in general surgery textbooks.1 However, it is common practice for surgical residents and attending surgeons to routinely order hematocrit on postoperative day-1 to ensure that the operation did not result in unsuspected anemia that then would need treatment (either with fluids or a blood transfusion). Many other surgeons rely on clinical factors such as tachycardia, oliguria, or hypotension to trigger a hematocrit (and other laboratory) tests. Our hypothesis is that the latter group has chosen the most cost-effective and prudent practice. One problem with checking the hematocrit routinely, as with any other screening test, is what to do with an abnormal result, assuming an asymptomatic patient? If the postoperative hematocrit is lower than expected given the estimated blood loss (EBL), what is one to do?

 

 

Methods

This retrospective case-control study conducted at the New Mexico VA Health Care System (NMVAHCS) in Albuquerque compared data for patients who received transfusion within 72 hours of elective surgeries vs patients who did not. Patients who underwent elective general surgery from January 2011 through December 2014 were included. An elective general surgery was defined as surgery performed following an outpatient preoperative anesthesia evaluation ≥ 30 days prior to operation. Patients who underwent emergency operations, and those with baseline anemia (preoperative hematocrit < 30%), and those transfused > 72 hours after their operation were excluded. The NMVAHCSInstitutional Review Board approved this study (No. 15-H184).

A detailed record review was conducted to collect data on demographics and other preoperative risk factors, including age, sex, body mass index (BMI), race and ethnicity, cardiac and pulmonary comorbidities, tobacco use, alcohol intake, diabetes, American Society of Anesthesiologists Physical Status Classification, metabolic equivalent of task, hematologic conditions, and renal disease.

For each procedure, we recorded the type of elective general surgery performed, the diagnosis/indication, pre- and postoperative hemoglobin/hematocrit, intraoperative EBL, length of operation, surgical wound class, length of hospital stay (LOS), intensive care unit (ICU) status, number of hematocrit tests, cardiovascular risk of operation (defined by anesthesia assessment), presence or absence of malignancy, preoperative platelet count, albumin level, preoperative prothrombin time/activated partial thromboplastin time (aPTT), international normalized ratio (INR), hemoglobin A1c, and incidence of transfusion. Signs and symptoms of anemia were recorded as present if the postoperative vital signs suggested low intravascular volume (pulse > 120 beats/minute, systolic blood pressure < 90 mm Hg, or vasoactive medication requirement [per anesthesia postoperative note]) or if the patient reported or exhibited symptoms of dizziness or fatigue or evidence of clinically apparent bleeding (ie, hematoma formation). Laboratory charges for hematocrit tests and CBC at the NMAVAHCS were used to assess cost.11

To stratify the transfusion risk, patients were distributed among 3 groups based on the following criteria: discharged home the same day as surgery; admitted but did not have postoperative hematocrit testing; and admitted and had postoperative hematocrit testing. We also stratified operations into low or high risk based on the risk for postoperative transfusion (Figure). Recognizing that the American College of Chest Physicians guidelines for perioperative management of antithrombotic therapy places bowel resection in a high-risk category, we designated a surgery as high risk when ≥ 2 patients in the transfusion group had that type of surgery over the 4 years of the study.12 Otherwise, the operations were deemed low risk.

 

Statistical Analysis

Numeric analysis used t tests and Binary and categorical variables used Fisher exact tests. P value ≤ .05 was considered statistically significant. SAS software was used for all statistical analyses.

 

 

Results

From 2011 through 2014, 1531 patients had elective general surgery at NMVAHCS. Twenty-two patients with preoperative anemia (hematocrit < 30%) and 1 patient who received a transfusion > 72 hours after the operation were excluded. Most elective operations (70%, n = 1075) were performed on an outpatient basis; none involved transfusion. Inguinal hernia repair was most common with 479 operations; 17 patients were treated inpatient of which 2 patients had routine postoperative hematocrit checks; (neither received transfusion). One patient with inguinal hernia surgery received transfusion without routine postoperative hematocrit monitoring.

Of 112 partial colon resections, 1 patient had a postoperative transfusion; and all but 3 received postoperative hematocrit monitoring. Nineteen patients undergoing partial colon resection had a clinical indication for postoperative hematocrit monitoring. None of the 5 patients with partial gastrectomy received a postoperative transfusion. Of 121 elective cholecystectomies, no patients had postoperative transfusion, whereas 34 had postoperative hematocrit monitoring; only 2 patients had a clinical reason for the hematocrit monitoring.

Of 430 elective inpatient operations, 12 received transfusions and 288 patients had ≥ 1 postoperative hematocrit test (67%). All hematocrit tests were requested by the attending surgeon, resident surgeon, or the surgical ICU team. Of the group that had postoperative hematocrit monitoring, there was an average of 4.4 postoperative hematocrit tests per patient (range, 1-44).

There were 12 transfusions for inpatients (2.8%), which is similar to the findings of a recent study of VA general surgery (2.3%).13 Five of the 12 patients received intraoperative transfusions while 7 were transfused within 72 hours postoperation. All but 1 patient receiving transfusion had EBL > 199 mL (range, 5-3000; mean, 950 mL; median, 500 mL) and/or signs or symptoms of anemia or other indications for measurement of the postoperative hematocrit. There were no statistically significant differences in patients’ age, sex, BMI, or race and ethnicity between groups receiving and not receiving transfusion (Table 1).

When comparing the transfusion vs the nontransfusion groups (after excluding those with clinical preoperative anemia) the risk factors for transfusion included: relatively low mean preoperative hematocrit (mean, 36.9% vs 42.7%, respectively; P = .003), low postoperative hematocrit (mean, 30.2% vs 37.1%, respectively; P < .001), high EBL (mean, 844 mL vs 109 mL, respectively; P = .005), large infusion of intraoperative fluids (mean, 4625 mL vs 2505 mL, respectively; P = .005), longer duration of operation (mean, 397 min vs 183 min, respectively; P < .001), and longer LOS (mean, 14.5 d vs 4.9 d, respectively; P < .001) (Table 2). Similarly, we found an increased risk for transfusion with high/intermediate cardiovascular risk (vs low), any wound not classified as clean, ICU stay, and postoperative symptoms of anemia.

 

We found no increased risk for transfusion with ethanol, tobacco, warfarin, or clopidogrel use; polycythemia; thrombocytopenia; preoperative INR; preoperative aPTT; preoperative albumin; Hemoglobin A1c; or diabetes mellitus; or for operations performed for malignancy. Ten patients in the ICU received transfusion (5.8%) compared with 2 patients (0.8%) not admitted to the ICU.

Operations were deemed high risk when ≥ 2 of patients having that operation received transfusions within 72 hours of their operation. There were 15 abdominoperineal resections; 3 of these received transfusions (20%). There were 7 total abdominal colectomies; 3 of these received transfusions (43%). We therefore had 22 high-risk operations, 6 of which were transfused (27%).

 

 

Discussion

Routine measurement of postoperative hematocrit levels after elective general surgery at NMVAHCS was not necessary. There were 12 transfusions for inpatients (2.8%), which is similar to the findings of a recent study of VA general surgery (2.3%).13 We found that routine postoperative hematocrit measurements to assess anemia had little or no effect on clinical decision-making or clinical outcomes.

According to our results, 88% of initial hematocrit tests after elective partial colectomies could have been eliminated; only 32 of 146 patients demonstrated a clinical reason for postoperative hematocrit testing. Similarly, 36 of 40 postcholecystectomy hematocrit tests (90%) could have been eliminated had the surgeons relied on clinical signs indicating possible postoperative anemia (none were transfused). Excluding patients with major intraoperative blood loss (> 300 mL), only 29 of 288 (10%) patients who had postoperative hematocrit tests had a clinical indication for a postoperative hematocrit test (ie, symptoms of anemia and/or active bleeding). One patient with inguinal hernia surgery who received transfusion was taking an anticoagulant and had a clinically indicated hematocrit test for a large hematoma that eventually required reoperation.

Our study found that routine hematocrit checks may actually increase the risk that a patient would receive an unnecessary transfusion. For instance, one elderly patient, after a right colectomy, had 6 hematocrit levels while on a heparin drip and received transfusion despite being asymptomatic. His lowest hematocrit level prior to transfusion was 23.7%. This patient had a total of 18 hematocrit tests. His EBL was 350 mL and his first postoperative HCT level was 33.1%. In another instance, a patient undergoing abdominoperineal resection had a transfusion on postoperative day 1, despite being hypertensive, with a hematocrit that ranged from 26% before transfusion to 31% after the transfusion. These 2 cases illustrate what has been shown in a recent study: A substantial number of patients with colorectal cancer receive unnecessary transfusions.14 On the other hand, one ileostomy closure patient had 33 hematocrit tests, yet his initial postoperative hematocrit was 37%, and he never received a transfusion. With low-risk surgeries, clinical judgment should dictate when a postoperative hematocrit level is needed. This strategy would have eliminated 206 unnecessary initial postoperative hematocrit tests (72%), could have decreased the number of unnecessary transfusions, and would have saved NMVAHCS about $1600 annually.

Abdominoperineal resections and total abdominal colectomies accounted for a high proportion of transfusions in our study. Inpatient elective operations can be risk stratified and have routine hematocrit tests ordered for patients at high risk. The probability of transfusion was greater in high-risk vs low-risk surgeries; 27% (6 of 22 patients) vs 2% (6 of 408 patients), respectively (P < .001). Since 14 of the 22 patients undergoing high-risk operation already had clinical reasons for a postoperative hematocrit test, we only need to add the remaining 8 patients with high-risk operations to the 74 who had a clinical reason for a hematocrit test and conclude that 82 of 430 patients (19%) had a clinical reason for a hematocrit test, either from signs or symptoms of blood loss or because they were in a high-risk group.

 


While our elective general surgery cases may not represent many general surgery programs in the US and VA health care systems, we can extrapolate cost savings using the same cost analyses outlined by Kohli and colleagues.1 Assuming 1.9 million elective inpatient general surgeries per year in the United States with an average cost of $21 per CBC, the annual cost of universal postoperative hematocrit testing would be $40 million.11,15 If postoperative hematocrit testing were 70% consistent with our findings, the annual cost for hematocrit tests on 51% of the inpatient general surgeries would be approximately $20.4 million. A reduction in routine hematocrit testing to 25% of all inpatient general surgeries (vs our finding that 19% were deemed necessary) results in an annual savings of $30 million. This conservative estimate could be even higher since there were 4.4 hematocrit tests per patient; therefore, we have about $132 million in savings.

Assuming 181,384 elective VA inpatient general surgeries each year, costing $7.14 per CBC (the NMVAHCS cost), the VA could save $1.3 million annually. If postoperative HCT testing were 70% consistent with our findings, the annual cost for hematocrit tests on 50.4% of inpatient general surgery operations would be about $653,000. A reduction in routine hematocrit testing to 25% of all inpatient general surgeries (vs our 19%) results in annual VA savings of $330,000. This conservative estimate could be even higher since there were on average 4.4 hematocrit levels per patient; therefore, we estimate that annual savings for the VA of about $1.45 million.

 

 

Limitations

The retrospective chart review nature of this study may have led to selection bias. Only a small number of patients received a transfusion, which may have skewed the data. This study population comes from a single VA medical center; this patient population may not be reflective of other VA medical centers or the US population as a whole. Given that NMVAHCS does not perform hepatic, esophageal, pancreas, or transplant operations, the potential savings to both the US and the VA may be overestimated, but this could be studied in the future by VA medical centers that perform more complex operations.

 

Conclusions

This study found that over a 4-year period routine postoperative hematocrit tests for patients undergoing elective general surgery at a VA medical center were not necessary. General surgeons routinely order various pre- and postoperative laboratory tests despite their limited utility. Reduction in unneeded routine tests could result in notable savings to the VA without compromising quality of care.

Only general surgery patients undergoing operations that carry a high risk for needing a blood transfusion should have a routine postoperative hematocrit testing. In our study population, the chance of an elective colectomy, cholecystectomy, or hernia patient needing a transfusion was rare. This strategy could eliminate a considerable number of unnecessary blood tests and would potentially yield significant savings.

References

1. Kohli N, Mallipeddi PK, Neff JM, Sze EH, Roat TW. Routine hematocrit after elective gynecologic surgery. Obstet Gynecol. 2000;95(6 Pt 1):847-850. doi:10.1016/s0029-7844(00)00796-1

2. Olus A, Orhan, U, Murat A, et al. Do asymptomatic patients require routine hemoglobin testing following uneventful, unplanned cesarean sections? Arch Gynecol Obstet. 2010;281(2):195-199. doi:10.1007/s00404-009-1093-1

3. Wu XD, Zhu ZL, Xiao P, Liu JC, Wang JW, Huang W. Are routine postoperative laboratory tests necessary after primary total hip arthroplasty? J Arthroplasty. 2020;35(10):2892-2898. doi:10.1016/j.arth.2020.04.097

4. Kumar A, Srivastava U. Role of routine laboratory investigations in preoperative evaluation. J Anesthesiol Clin Pharmacol. 2011;27(2):174-179. doi:10.4103/0970-9185.81824

5. Aghajanian A, Grimes DA. Routine prothrombin time determination before elective gynecologic operations. Obstet Gynecol. 1991;78(5 Pt 1):837-839.

6. Ransom SB, McNeeley SG, Malone JM Jr. A cost-effectiveness evaluation of preoperative type-and-screen testing for vaginal hysterectomy. Am J Obstet Gynecol. 1996;175(5):1201-1203. doi:10.1016/s0002-9378(96)70028-5

7. Ransom SB, McNeeley SG, Hosseini RB. Cost-effectiveness of routine blood type and screen testing before elective laparoscopy. Obstet Gynecol. 1995;86(3):346-348. doi:10.1016/0029-7844(95)00187-V

8. Committee on Standards and Practice Parameters, Apfelbaum JL, Connis RT, et al. Practice advisory for preanesthesia evaluation: an updated report by the American Society of Anesthesiologists Task Force on Preanesthesia Evaluation. Anesthesiology. 2012;116(3):522-538. doi:10.1097/ALN.0b013e31823c1067

9. Weil IA, Seicean S, Neuhauser D, Schiltz NK, Seicean A. Use and utility of hemostatic screening in adults undergoing elective, non-cardiac surgery. PLoS One. 2015;10(12):e0139139. doi:10.1371/journal.pone.0139139

10. Wu WC, Schifftner TL, Henderson WG, et al. Preoperative hematocrit levels and postoperative outcomes in older patients undergoing non-cardiac surgery. JAMA. 2007;297(22):2481-2488. doi:10.1001/jama.297.22.2481

11. Healthcare Bluebook. Complete blood count (CBC) with differential. Accessed March 28, 2024. https://www.healthcarebluebook.com/page_ProcedureDetails.aspx?id=214&dataset=lab

12. Douketis JD, Spyropoulos AC, Murad MH, et al. Perioperative management of antithrombotic therapy: an American College of Chest Physicians Clinical Practice Guideline. Chest. 2022;162(5):e207-e243. doi:10.1016/j.chest.2022.07.025

13. Randall JA, Wagner KT, Brody F. Perioperative transfusions in veterans following noncardiac procedures. J Laparoendosc Adv Surg Tech A. 2023;33(10):923-931. doi:10.1089/lap. 2023.0307

14. Tartter PI, Barron DM. Unnecessary blood transfusions in elective colorectal cancer surgery. Transfusion. 1985;25(2):113-115. doi:10.1046/j.1537-2995.1985.25285169199.x

15. Steiner CA, Karaca Z, Moore BJ, Imshaug MC, Pickens G. Surgeries in hospital-based ambulatory surgery and hospital inpatient settings, 2014. Healthcare Cost and Utilization Project statistical brief #223. May 2017. Revised July 2020. Agency for Healthcare Research and Quality. Accessed February 26, 2024. https://hcup-us.ahrq.gov/reports/statbriefs/sb223-Ambulatory-Inpatient-Surgeries-2014.pdf

16. US Department of Veterans Affairs, National Surgery Office. Quarterly report: Q3 of fiscal year 2017. VISN operative complexity summary [Source not verified].

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Anthony Vigil, MDa,b; Taylor Parnall, MDc; Clifford Qualls, PhDa,b; Robert Glew, PhDb; Robin Osofsky, MDd; Micah Guess, RNa;  Lauren Mercer, MDb

Correspondence:  Anthony Vigil  ([email protected]

aNew Mexico Veterans Affairs Health Care System, Albuquerque

bUniversity of New Mexico School of Medicine, Albuquerque

cHarbor-UCLA Medical Center, Torrance, California

dOregon Health and Science University, Portland

Author contributions

Study conception and design: Vigil, Taylor; acquisition of data: Vigil, Taylor, Geuss, Mercer; analysis and interpretation of data: Vigil, Taylor, Osofsky, Qualls; drafting of manuscript: Vigil, Taylor; critical revision: Glew.

Author disclosures

The authors report no actual or potential conflicts of interest or outside sources of funding with regard to this article.

Disclaimer

The opinions expressed herein are those of the authors and do not necessarily reflect those of Federal Practitioner, Frontline Medical Communications Inc., the US Government, or any of its agencies. This article may discuss unlabeled or investigational use of certain drugs. Please review the complete prescribing information for specific drugs or drug combinations—including indications, contraindications, warnings, and adverse effects—before administering pharmacologic therapy to patients.

Ethics and consent

The New Mexico Veterans Affairs Health Care System Institutional Review Board approved this study (No. 15-H184).

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Anthony Vigil, MDa,b; Taylor Parnall, MDc; Clifford Qualls, PhDa,b; Robert Glew, PhDb; Robin Osofsky, MDd; Micah Guess, RNa;  Lauren Mercer, MDb

Correspondence:  Anthony Vigil  ([email protected]

aNew Mexico Veterans Affairs Health Care System, Albuquerque

bUniversity of New Mexico School of Medicine, Albuquerque

cHarbor-UCLA Medical Center, Torrance, California

dOregon Health and Science University, Portland

Author contributions

Study conception and design: Vigil, Taylor; acquisition of data: Vigil, Taylor, Geuss, Mercer; analysis and interpretation of data: Vigil, Taylor, Osofsky, Qualls; drafting of manuscript: Vigil, Taylor; critical revision: Glew.

Author disclosures

The authors report no actual or potential conflicts of interest or outside sources of funding with regard to this article.

Disclaimer

The opinions expressed herein are those of the authors and do not necessarily reflect those of Federal Practitioner, Frontline Medical Communications Inc., the US Government, or any of its agencies. This article may discuss unlabeled or investigational use of certain drugs. Please review the complete prescribing information for specific drugs or drug combinations—including indications, contraindications, warnings, and adverse effects—before administering pharmacologic therapy to patients.

Ethics and consent

The New Mexico Veterans Affairs Health Care System Institutional Review Board approved this study (No. 15-H184).

Author and Disclosure Information

Anthony Vigil, MDa,b; Taylor Parnall, MDc; Clifford Qualls, PhDa,b; Robert Glew, PhDb; Robin Osofsky, MDd; Micah Guess, RNa;  Lauren Mercer, MDb

Correspondence:  Anthony Vigil  ([email protected]

aNew Mexico Veterans Affairs Health Care System, Albuquerque

bUniversity of New Mexico School of Medicine, Albuquerque

cHarbor-UCLA Medical Center, Torrance, California

dOregon Health and Science University, Portland

Author contributions

Study conception and design: Vigil, Taylor; acquisition of data: Vigil, Taylor, Geuss, Mercer; analysis and interpretation of data: Vigil, Taylor, Osofsky, Qualls; drafting of manuscript: Vigil, Taylor; critical revision: Glew.

Author disclosures

The authors report no actual or potential conflicts of interest or outside sources of funding with regard to this article.

Disclaimer

The opinions expressed herein are those of the authors and do not necessarily reflect those of Federal Practitioner, Frontline Medical Communications Inc., the US Government, or any of its agencies. This article may discuss unlabeled or investigational use of certain drugs. Please review the complete prescribing information for specific drugs or drug combinations—including indications, contraindications, warnings, and adverse effects—before administering pharmacologic therapy to patients.

Ethics and consent

The New Mexico Veterans Affairs Health Care System Institutional Review Board approved this study (No. 15-H184).

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Article PDF

It is common practice to routinely measure postoperative hematocrit levels at US Department of Veterans Affairs (VA) hospitals for a wide range of elective general surgeries. While hematocrit measurement is a low-cost test, the high frequency with which these tests are performed may drastically increase overall costs.

Numerous studies have suggested that physicians overuse laboratory testing.1-10 Kohli and colleagues recommended that the routine practice of obtaining postoperative hematocrit tests following elective gynecologic surgery be abandoned.1 A similar recommendation was made by Olus and colleagues after studying uneventful, unplanned cesarean sections and by Wu and colleagues after investigating routine laboratory tests post total hip arthroplasty.2,3

To our knowledge, a study assessing routine postoperative hematocrit testing in elective general surgery has not yet been conducted. Many laboratory tests ordered in the perioperative period are not indicated, including complete blood count (CBC), electrolytes, and coagulation studies.4 Based on the results of these studies, we expected that the routine measurement of postoperative hematocrit levels after elective general surgeries at VA medical centers would not be cost effective. A PubMed search for articles published from 1990 to 2023 using the search terms “hematocrit,” “hemoglobin,” “general,” “surgery,” “routine,” and “cost” or “cost-effectiveness,” suggests that the clinical usefulness of postoperative hematocrit testing has not been well studied in the general surgery setting. The purpose of this study was to determine the clinical utility and associated cost of measuring routine postoperative hematocrit levels in order to generate a guide as to when the practice is warranted following common elective general surgery.

 

Although gynecologic textbooks may describe recommendations of routine hematocrit checking after elective gynecologic operations, one has difficulty finding the same recommendations in general surgery textbooks.1 However, it is common practice for surgical residents and attending surgeons to routinely order hematocrit on postoperative day-1 to ensure that the operation did not result in unsuspected anemia that then would need treatment (either with fluids or a blood transfusion). Many other surgeons rely on clinical factors such as tachycardia, oliguria, or hypotension to trigger a hematocrit (and other laboratory) tests. Our hypothesis is that the latter group has chosen the most cost-effective and prudent practice. One problem with checking the hematocrit routinely, as with any other screening test, is what to do with an abnormal result, assuming an asymptomatic patient? If the postoperative hematocrit is lower than expected given the estimated blood loss (EBL), what is one to do?

 

 

Methods

This retrospective case-control study conducted at the New Mexico VA Health Care System (NMVAHCS) in Albuquerque compared data for patients who received transfusion within 72 hours of elective surgeries vs patients who did not. Patients who underwent elective general surgery from January 2011 through December 2014 were included. An elective general surgery was defined as surgery performed following an outpatient preoperative anesthesia evaluation ≥ 30 days prior to operation. Patients who underwent emergency operations, and those with baseline anemia (preoperative hematocrit < 30%), and those transfused > 72 hours after their operation were excluded. The NMVAHCSInstitutional Review Board approved this study (No. 15-H184).

A detailed record review was conducted to collect data on demographics and other preoperative risk factors, including age, sex, body mass index (BMI), race and ethnicity, cardiac and pulmonary comorbidities, tobacco use, alcohol intake, diabetes, American Society of Anesthesiologists Physical Status Classification, metabolic equivalent of task, hematologic conditions, and renal disease.

For each procedure, we recorded the type of elective general surgery performed, the diagnosis/indication, pre- and postoperative hemoglobin/hematocrit, intraoperative EBL, length of operation, surgical wound class, length of hospital stay (LOS), intensive care unit (ICU) status, number of hematocrit tests, cardiovascular risk of operation (defined by anesthesia assessment), presence or absence of malignancy, preoperative platelet count, albumin level, preoperative prothrombin time/activated partial thromboplastin time (aPTT), international normalized ratio (INR), hemoglobin A1c, and incidence of transfusion. Signs and symptoms of anemia were recorded as present if the postoperative vital signs suggested low intravascular volume (pulse > 120 beats/minute, systolic blood pressure < 90 mm Hg, or vasoactive medication requirement [per anesthesia postoperative note]) or if the patient reported or exhibited symptoms of dizziness or fatigue or evidence of clinically apparent bleeding (ie, hematoma formation). Laboratory charges for hematocrit tests and CBC at the NMAVAHCS were used to assess cost.11

To stratify the transfusion risk, patients were distributed among 3 groups based on the following criteria: discharged home the same day as surgery; admitted but did not have postoperative hematocrit testing; and admitted and had postoperative hematocrit testing. We also stratified operations into low or high risk based on the risk for postoperative transfusion (Figure). Recognizing that the American College of Chest Physicians guidelines for perioperative management of antithrombotic therapy places bowel resection in a high-risk category, we designated a surgery as high risk when ≥ 2 patients in the transfusion group had that type of surgery over the 4 years of the study.12 Otherwise, the operations were deemed low risk.

 

Statistical Analysis

Numeric analysis used t tests and Binary and categorical variables used Fisher exact tests. P value ≤ .05 was considered statistically significant. SAS software was used for all statistical analyses.

 

 

Results

From 2011 through 2014, 1531 patients had elective general surgery at NMVAHCS. Twenty-two patients with preoperative anemia (hematocrit < 30%) and 1 patient who received a transfusion > 72 hours after the operation were excluded. Most elective operations (70%, n = 1075) were performed on an outpatient basis; none involved transfusion. Inguinal hernia repair was most common with 479 operations; 17 patients were treated inpatient of which 2 patients had routine postoperative hematocrit checks; (neither received transfusion). One patient with inguinal hernia surgery received transfusion without routine postoperative hematocrit monitoring.

Of 112 partial colon resections, 1 patient had a postoperative transfusion; and all but 3 received postoperative hematocrit monitoring. Nineteen patients undergoing partial colon resection had a clinical indication for postoperative hematocrit monitoring. None of the 5 patients with partial gastrectomy received a postoperative transfusion. Of 121 elective cholecystectomies, no patients had postoperative transfusion, whereas 34 had postoperative hematocrit monitoring; only 2 patients had a clinical reason for the hematocrit monitoring.

Of 430 elective inpatient operations, 12 received transfusions and 288 patients had ≥ 1 postoperative hematocrit test (67%). All hematocrit tests were requested by the attending surgeon, resident surgeon, or the surgical ICU team. Of the group that had postoperative hematocrit monitoring, there was an average of 4.4 postoperative hematocrit tests per patient (range, 1-44).

There were 12 transfusions for inpatients (2.8%), which is similar to the findings of a recent study of VA general surgery (2.3%).13 Five of the 12 patients received intraoperative transfusions while 7 were transfused within 72 hours postoperation. All but 1 patient receiving transfusion had EBL > 199 mL (range, 5-3000; mean, 950 mL; median, 500 mL) and/or signs or symptoms of anemia or other indications for measurement of the postoperative hematocrit. There were no statistically significant differences in patients’ age, sex, BMI, or race and ethnicity between groups receiving and not receiving transfusion (Table 1).

When comparing the transfusion vs the nontransfusion groups (after excluding those with clinical preoperative anemia) the risk factors for transfusion included: relatively low mean preoperative hematocrit (mean, 36.9% vs 42.7%, respectively; P = .003), low postoperative hematocrit (mean, 30.2% vs 37.1%, respectively; P < .001), high EBL (mean, 844 mL vs 109 mL, respectively; P = .005), large infusion of intraoperative fluids (mean, 4625 mL vs 2505 mL, respectively; P = .005), longer duration of operation (mean, 397 min vs 183 min, respectively; P < .001), and longer LOS (mean, 14.5 d vs 4.9 d, respectively; P < .001) (Table 2). Similarly, we found an increased risk for transfusion with high/intermediate cardiovascular risk (vs low), any wound not classified as clean, ICU stay, and postoperative symptoms of anemia.

 

We found no increased risk for transfusion with ethanol, tobacco, warfarin, or clopidogrel use; polycythemia; thrombocytopenia; preoperative INR; preoperative aPTT; preoperative albumin; Hemoglobin A1c; or diabetes mellitus; or for operations performed for malignancy. Ten patients in the ICU received transfusion (5.8%) compared with 2 patients (0.8%) not admitted to the ICU.

Operations were deemed high risk when ≥ 2 of patients having that operation received transfusions within 72 hours of their operation. There were 15 abdominoperineal resections; 3 of these received transfusions (20%). There were 7 total abdominal colectomies; 3 of these received transfusions (43%). We therefore had 22 high-risk operations, 6 of which were transfused (27%).

 

 

Discussion

Routine measurement of postoperative hematocrit levels after elective general surgery at NMVAHCS was not necessary. There were 12 transfusions for inpatients (2.8%), which is similar to the findings of a recent study of VA general surgery (2.3%).13 We found that routine postoperative hematocrit measurements to assess anemia had little or no effect on clinical decision-making or clinical outcomes.

According to our results, 88% of initial hematocrit tests after elective partial colectomies could have been eliminated; only 32 of 146 patients demonstrated a clinical reason for postoperative hematocrit testing. Similarly, 36 of 40 postcholecystectomy hematocrit tests (90%) could have been eliminated had the surgeons relied on clinical signs indicating possible postoperative anemia (none were transfused). Excluding patients with major intraoperative blood loss (> 300 mL), only 29 of 288 (10%) patients who had postoperative hematocrit tests had a clinical indication for a postoperative hematocrit test (ie, symptoms of anemia and/or active bleeding). One patient with inguinal hernia surgery who received transfusion was taking an anticoagulant and had a clinically indicated hematocrit test for a large hematoma that eventually required reoperation.

Our study found that routine hematocrit checks may actually increase the risk that a patient would receive an unnecessary transfusion. For instance, one elderly patient, after a right colectomy, had 6 hematocrit levels while on a heparin drip and received transfusion despite being asymptomatic. His lowest hematocrit level prior to transfusion was 23.7%. This patient had a total of 18 hematocrit tests. His EBL was 350 mL and his first postoperative HCT level was 33.1%. In another instance, a patient undergoing abdominoperineal resection had a transfusion on postoperative day 1, despite being hypertensive, with a hematocrit that ranged from 26% before transfusion to 31% after the transfusion. These 2 cases illustrate what has been shown in a recent study: A substantial number of patients with colorectal cancer receive unnecessary transfusions.14 On the other hand, one ileostomy closure patient had 33 hematocrit tests, yet his initial postoperative hematocrit was 37%, and he never received a transfusion. With low-risk surgeries, clinical judgment should dictate when a postoperative hematocrit level is needed. This strategy would have eliminated 206 unnecessary initial postoperative hematocrit tests (72%), could have decreased the number of unnecessary transfusions, and would have saved NMVAHCS about $1600 annually.

Abdominoperineal resections and total abdominal colectomies accounted for a high proportion of transfusions in our study. Inpatient elective operations can be risk stratified and have routine hematocrit tests ordered for patients at high risk. The probability of transfusion was greater in high-risk vs low-risk surgeries; 27% (6 of 22 patients) vs 2% (6 of 408 patients), respectively (P < .001). Since 14 of the 22 patients undergoing high-risk operation already had clinical reasons for a postoperative hematocrit test, we only need to add the remaining 8 patients with high-risk operations to the 74 who had a clinical reason for a hematocrit test and conclude that 82 of 430 patients (19%) had a clinical reason for a hematocrit test, either from signs or symptoms of blood loss or because they were in a high-risk group.

 


While our elective general surgery cases may not represent many general surgery programs in the US and VA health care systems, we can extrapolate cost savings using the same cost analyses outlined by Kohli and colleagues.1 Assuming 1.9 million elective inpatient general surgeries per year in the United States with an average cost of $21 per CBC, the annual cost of universal postoperative hematocrit testing would be $40 million.11,15 If postoperative hematocrit testing were 70% consistent with our findings, the annual cost for hematocrit tests on 51% of the inpatient general surgeries would be approximately $20.4 million. A reduction in routine hematocrit testing to 25% of all inpatient general surgeries (vs our finding that 19% were deemed necessary) results in an annual savings of $30 million. This conservative estimate could be even higher since there were 4.4 hematocrit tests per patient; therefore, we have about $132 million in savings.

Assuming 181,384 elective VA inpatient general surgeries each year, costing $7.14 per CBC (the NMVAHCS cost), the VA could save $1.3 million annually. If postoperative HCT testing were 70% consistent with our findings, the annual cost for hematocrit tests on 50.4% of inpatient general surgery operations would be about $653,000. A reduction in routine hematocrit testing to 25% of all inpatient general surgeries (vs our 19%) results in annual VA savings of $330,000. This conservative estimate could be even higher since there were on average 4.4 hematocrit levels per patient; therefore, we estimate that annual savings for the VA of about $1.45 million.

 

 

Limitations

The retrospective chart review nature of this study may have led to selection bias. Only a small number of patients received a transfusion, which may have skewed the data. This study population comes from a single VA medical center; this patient population may not be reflective of other VA medical centers or the US population as a whole. Given that NMVAHCS does not perform hepatic, esophageal, pancreas, or transplant operations, the potential savings to both the US and the VA may be overestimated, but this could be studied in the future by VA medical centers that perform more complex operations.

 

Conclusions

This study found that over a 4-year period routine postoperative hematocrit tests for patients undergoing elective general surgery at a VA medical center were not necessary. General surgeons routinely order various pre- and postoperative laboratory tests despite their limited utility. Reduction in unneeded routine tests could result in notable savings to the VA without compromising quality of care.

Only general surgery patients undergoing operations that carry a high risk for needing a blood transfusion should have a routine postoperative hematocrit testing. In our study population, the chance of an elective colectomy, cholecystectomy, or hernia patient needing a transfusion was rare. This strategy could eliminate a considerable number of unnecessary blood tests and would potentially yield significant savings.

It is common practice to routinely measure postoperative hematocrit levels at US Department of Veterans Affairs (VA) hospitals for a wide range of elective general surgeries. While hematocrit measurement is a low-cost test, the high frequency with which these tests are performed may drastically increase overall costs.

Numerous studies have suggested that physicians overuse laboratory testing.1-10 Kohli and colleagues recommended that the routine practice of obtaining postoperative hematocrit tests following elective gynecologic surgery be abandoned.1 A similar recommendation was made by Olus and colleagues after studying uneventful, unplanned cesarean sections and by Wu and colleagues after investigating routine laboratory tests post total hip arthroplasty.2,3

To our knowledge, a study assessing routine postoperative hematocrit testing in elective general surgery has not yet been conducted. Many laboratory tests ordered in the perioperative period are not indicated, including complete blood count (CBC), electrolytes, and coagulation studies.4 Based on the results of these studies, we expected that the routine measurement of postoperative hematocrit levels after elective general surgeries at VA medical centers would not be cost effective. A PubMed search for articles published from 1990 to 2023 using the search terms “hematocrit,” “hemoglobin,” “general,” “surgery,” “routine,” and “cost” or “cost-effectiveness,” suggests that the clinical usefulness of postoperative hematocrit testing has not been well studied in the general surgery setting. The purpose of this study was to determine the clinical utility and associated cost of measuring routine postoperative hematocrit levels in order to generate a guide as to when the practice is warranted following common elective general surgery.

 

Although gynecologic textbooks may describe recommendations of routine hematocrit checking after elective gynecologic operations, one has difficulty finding the same recommendations in general surgery textbooks.1 However, it is common practice for surgical residents and attending surgeons to routinely order hematocrit on postoperative day-1 to ensure that the operation did not result in unsuspected anemia that then would need treatment (either with fluids or a blood transfusion). Many other surgeons rely on clinical factors such as tachycardia, oliguria, or hypotension to trigger a hematocrit (and other laboratory) tests. Our hypothesis is that the latter group has chosen the most cost-effective and prudent practice. One problem with checking the hematocrit routinely, as with any other screening test, is what to do with an abnormal result, assuming an asymptomatic patient? If the postoperative hematocrit is lower than expected given the estimated blood loss (EBL), what is one to do?

 

 

Methods

This retrospective case-control study conducted at the New Mexico VA Health Care System (NMVAHCS) in Albuquerque compared data for patients who received transfusion within 72 hours of elective surgeries vs patients who did not. Patients who underwent elective general surgery from January 2011 through December 2014 were included. An elective general surgery was defined as surgery performed following an outpatient preoperative anesthesia evaluation ≥ 30 days prior to operation. Patients who underwent emergency operations, and those with baseline anemia (preoperative hematocrit < 30%), and those transfused > 72 hours after their operation were excluded. The NMVAHCSInstitutional Review Board approved this study (No. 15-H184).

A detailed record review was conducted to collect data on demographics and other preoperative risk factors, including age, sex, body mass index (BMI), race and ethnicity, cardiac and pulmonary comorbidities, tobacco use, alcohol intake, diabetes, American Society of Anesthesiologists Physical Status Classification, metabolic equivalent of task, hematologic conditions, and renal disease.

For each procedure, we recorded the type of elective general surgery performed, the diagnosis/indication, pre- and postoperative hemoglobin/hematocrit, intraoperative EBL, length of operation, surgical wound class, length of hospital stay (LOS), intensive care unit (ICU) status, number of hematocrit tests, cardiovascular risk of operation (defined by anesthesia assessment), presence or absence of malignancy, preoperative platelet count, albumin level, preoperative prothrombin time/activated partial thromboplastin time (aPTT), international normalized ratio (INR), hemoglobin A1c, and incidence of transfusion. Signs and symptoms of anemia were recorded as present if the postoperative vital signs suggested low intravascular volume (pulse > 120 beats/minute, systolic blood pressure < 90 mm Hg, or vasoactive medication requirement [per anesthesia postoperative note]) or if the patient reported or exhibited symptoms of dizziness or fatigue or evidence of clinically apparent bleeding (ie, hematoma formation). Laboratory charges for hematocrit tests and CBC at the NMAVAHCS were used to assess cost.11

To stratify the transfusion risk, patients were distributed among 3 groups based on the following criteria: discharged home the same day as surgery; admitted but did not have postoperative hematocrit testing; and admitted and had postoperative hematocrit testing. We also stratified operations into low or high risk based on the risk for postoperative transfusion (Figure). Recognizing that the American College of Chest Physicians guidelines for perioperative management of antithrombotic therapy places bowel resection in a high-risk category, we designated a surgery as high risk when ≥ 2 patients in the transfusion group had that type of surgery over the 4 years of the study.12 Otherwise, the operations were deemed low risk.

 

Statistical Analysis

Numeric analysis used t tests and Binary and categorical variables used Fisher exact tests. P value ≤ .05 was considered statistically significant. SAS software was used for all statistical analyses.

 

 

Results

From 2011 through 2014, 1531 patients had elective general surgery at NMVAHCS. Twenty-two patients with preoperative anemia (hematocrit < 30%) and 1 patient who received a transfusion > 72 hours after the operation were excluded. Most elective operations (70%, n = 1075) were performed on an outpatient basis; none involved transfusion. Inguinal hernia repair was most common with 479 operations; 17 patients were treated inpatient of which 2 patients had routine postoperative hematocrit checks; (neither received transfusion). One patient with inguinal hernia surgery received transfusion without routine postoperative hematocrit monitoring.

Of 112 partial colon resections, 1 patient had a postoperative transfusion; and all but 3 received postoperative hematocrit monitoring. Nineteen patients undergoing partial colon resection had a clinical indication for postoperative hematocrit monitoring. None of the 5 patients with partial gastrectomy received a postoperative transfusion. Of 121 elective cholecystectomies, no patients had postoperative transfusion, whereas 34 had postoperative hematocrit monitoring; only 2 patients had a clinical reason for the hematocrit monitoring.

Of 430 elective inpatient operations, 12 received transfusions and 288 patients had ≥ 1 postoperative hematocrit test (67%). All hematocrit tests were requested by the attending surgeon, resident surgeon, or the surgical ICU team. Of the group that had postoperative hematocrit monitoring, there was an average of 4.4 postoperative hematocrit tests per patient (range, 1-44).

There were 12 transfusions for inpatients (2.8%), which is similar to the findings of a recent study of VA general surgery (2.3%).13 Five of the 12 patients received intraoperative transfusions while 7 were transfused within 72 hours postoperation. All but 1 patient receiving transfusion had EBL > 199 mL (range, 5-3000; mean, 950 mL; median, 500 mL) and/or signs or symptoms of anemia or other indications for measurement of the postoperative hematocrit. There were no statistically significant differences in patients’ age, sex, BMI, or race and ethnicity between groups receiving and not receiving transfusion (Table 1).

When comparing the transfusion vs the nontransfusion groups (after excluding those with clinical preoperative anemia) the risk factors for transfusion included: relatively low mean preoperative hematocrit (mean, 36.9% vs 42.7%, respectively; P = .003), low postoperative hematocrit (mean, 30.2% vs 37.1%, respectively; P < .001), high EBL (mean, 844 mL vs 109 mL, respectively; P = .005), large infusion of intraoperative fluids (mean, 4625 mL vs 2505 mL, respectively; P = .005), longer duration of operation (mean, 397 min vs 183 min, respectively; P < .001), and longer LOS (mean, 14.5 d vs 4.9 d, respectively; P < .001) (Table 2). Similarly, we found an increased risk for transfusion with high/intermediate cardiovascular risk (vs low), any wound not classified as clean, ICU stay, and postoperative symptoms of anemia.

 

We found no increased risk for transfusion with ethanol, tobacco, warfarin, or clopidogrel use; polycythemia; thrombocytopenia; preoperative INR; preoperative aPTT; preoperative albumin; Hemoglobin A1c; or diabetes mellitus; or for operations performed for malignancy. Ten patients in the ICU received transfusion (5.8%) compared with 2 patients (0.8%) not admitted to the ICU.

Operations were deemed high risk when ≥ 2 of patients having that operation received transfusions within 72 hours of their operation. There were 15 abdominoperineal resections; 3 of these received transfusions (20%). There were 7 total abdominal colectomies; 3 of these received transfusions (43%). We therefore had 22 high-risk operations, 6 of which were transfused (27%).

 

 

Discussion

Routine measurement of postoperative hematocrit levels after elective general surgery at NMVAHCS was not necessary. There were 12 transfusions for inpatients (2.8%), which is similar to the findings of a recent study of VA general surgery (2.3%).13 We found that routine postoperative hematocrit measurements to assess anemia had little or no effect on clinical decision-making or clinical outcomes.

According to our results, 88% of initial hematocrit tests after elective partial colectomies could have been eliminated; only 32 of 146 patients demonstrated a clinical reason for postoperative hematocrit testing. Similarly, 36 of 40 postcholecystectomy hematocrit tests (90%) could have been eliminated had the surgeons relied on clinical signs indicating possible postoperative anemia (none were transfused). Excluding patients with major intraoperative blood loss (> 300 mL), only 29 of 288 (10%) patients who had postoperative hematocrit tests had a clinical indication for a postoperative hematocrit test (ie, symptoms of anemia and/or active bleeding). One patient with inguinal hernia surgery who received transfusion was taking an anticoagulant and had a clinically indicated hematocrit test for a large hematoma that eventually required reoperation.

Our study found that routine hematocrit checks may actually increase the risk that a patient would receive an unnecessary transfusion. For instance, one elderly patient, after a right colectomy, had 6 hematocrit levels while on a heparin drip and received transfusion despite being asymptomatic. His lowest hematocrit level prior to transfusion was 23.7%. This patient had a total of 18 hematocrit tests. His EBL was 350 mL and his first postoperative HCT level was 33.1%. In another instance, a patient undergoing abdominoperineal resection had a transfusion on postoperative day 1, despite being hypertensive, with a hematocrit that ranged from 26% before transfusion to 31% after the transfusion. These 2 cases illustrate what has been shown in a recent study: A substantial number of patients with colorectal cancer receive unnecessary transfusions.14 On the other hand, one ileostomy closure patient had 33 hematocrit tests, yet his initial postoperative hematocrit was 37%, and he never received a transfusion. With low-risk surgeries, clinical judgment should dictate when a postoperative hematocrit level is needed. This strategy would have eliminated 206 unnecessary initial postoperative hematocrit tests (72%), could have decreased the number of unnecessary transfusions, and would have saved NMVAHCS about $1600 annually.

Abdominoperineal resections and total abdominal colectomies accounted for a high proportion of transfusions in our study. Inpatient elective operations can be risk stratified and have routine hematocrit tests ordered for patients at high risk. The probability of transfusion was greater in high-risk vs low-risk surgeries; 27% (6 of 22 patients) vs 2% (6 of 408 patients), respectively (P < .001). Since 14 of the 22 patients undergoing high-risk operation already had clinical reasons for a postoperative hematocrit test, we only need to add the remaining 8 patients with high-risk operations to the 74 who had a clinical reason for a hematocrit test and conclude that 82 of 430 patients (19%) had a clinical reason for a hematocrit test, either from signs or symptoms of blood loss or because they were in a high-risk group.

 


While our elective general surgery cases may not represent many general surgery programs in the US and VA health care systems, we can extrapolate cost savings using the same cost analyses outlined by Kohli and colleagues.1 Assuming 1.9 million elective inpatient general surgeries per year in the United States with an average cost of $21 per CBC, the annual cost of universal postoperative hematocrit testing would be $40 million.11,15 If postoperative hematocrit testing were 70% consistent with our findings, the annual cost for hematocrit tests on 51% of the inpatient general surgeries would be approximately $20.4 million. A reduction in routine hematocrit testing to 25% of all inpatient general surgeries (vs our finding that 19% were deemed necessary) results in an annual savings of $30 million. This conservative estimate could be even higher since there were 4.4 hematocrit tests per patient; therefore, we have about $132 million in savings.

Assuming 181,384 elective VA inpatient general surgeries each year, costing $7.14 per CBC (the NMVAHCS cost), the VA could save $1.3 million annually. If postoperative HCT testing were 70% consistent with our findings, the annual cost for hematocrit tests on 50.4% of inpatient general surgery operations would be about $653,000. A reduction in routine hematocrit testing to 25% of all inpatient general surgeries (vs our 19%) results in annual VA savings of $330,000. This conservative estimate could be even higher since there were on average 4.4 hematocrit levels per patient; therefore, we estimate that annual savings for the VA of about $1.45 million.

 

 

Limitations

The retrospective chart review nature of this study may have led to selection bias. Only a small number of patients received a transfusion, which may have skewed the data. This study population comes from a single VA medical center; this patient population may not be reflective of other VA medical centers or the US population as a whole. Given that NMVAHCS does not perform hepatic, esophageal, pancreas, or transplant operations, the potential savings to both the US and the VA may be overestimated, but this could be studied in the future by VA medical centers that perform more complex operations.

 

Conclusions

This study found that over a 4-year period routine postoperative hematocrit tests for patients undergoing elective general surgery at a VA medical center were not necessary. General surgeons routinely order various pre- and postoperative laboratory tests despite their limited utility. Reduction in unneeded routine tests could result in notable savings to the VA without compromising quality of care.

Only general surgery patients undergoing operations that carry a high risk for needing a blood transfusion should have a routine postoperative hematocrit testing. In our study population, the chance of an elective colectomy, cholecystectomy, or hernia patient needing a transfusion was rare. This strategy could eliminate a considerable number of unnecessary blood tests and would potentially yield significant savings.

References

1. Kohli N, Mallipeddi PK, Neff JM, Sze EH, Roat TW. Routine hematocrit after elective gynecologic surgery. Obstet Gynecol. 2000;95(6 Pt 1):847-850. doi:10.1016/s0029-7844(00)00796-1

2. Olus A, Orhan, U, Murat A, et al. Do asymptomatic patients require routine hemoglobin testing following uneventful, unplanned cesarean sections? Arch Gynecol Obstet. 2010;281(2):195-199. doi:10.1007/s00404-009-1093-1

3. Wu XD, Zhu ZL, Xiao P, Liu JC, Wang JW, Huang W. Are routine postoperative laboratory tests necessary after primary total hip arthroplasty? J Arthroplasty. 2020;35(10):2892-2898. doi:10.1016/j.arth.2020.04.097

4. Kumar A, Srivastava U. Role of routine laboratory investigations in preoperative evaluation. J Anesthesiol Clin Pharmacol. 2011;27(2):174-179. doi:10.4103/0970-9185.81824

5. Aghajanian A, Grimes DA. Routine prothrombin time determination before elective gynecologic operations. Obstet Gynecol. 1991;78(5 Pt 1):837-839.

6. Ransom SB, McNeeley SG, Malone JM Jr. A cost-effectiveness evaluation of preoperative type-and-screen testing for vaginal hysterectomy. Am J Obstet Gynecol. 1996;175(5):1201-1203. doi:10.1016/s0002-9378(96)70028-5

7. Ransom SB, McNeeley SG, Hosseini RB. Cost-effectiveness of routine blood type and screen testing before elective laparoscopy. Obstet Gynecol. 1995;86(3):346-348. doi:10.1016/0029-7844(95)00187-V

8. Committee on Standards and Practice Parameters, Apfelbaum JL, Connis RT, et al. Practice advisory for preanesthesia evaluation: an updated report by the American Society of Anesthesiologists Task Force on Preanesthesia Evaluation. Anesthesiology. 2012;116(3):522-538. doi:10.1097/ALN.0b013e31823c1067

9. Weil IA, Seicean S, Neuhauser D, Schiltz NK, Seicean A. Use and utility of hemostatic screening in adults undergoing elective, non-cardiac surgery. PLoS One. 2015;10(12):e0139139. doi:10.1371/journal.pone.0139139

10. Wu WC, Schifftner TL, Henderson WG, et al. Preoperative hematocrit levels and postoperative outcomes in older patients undergoing non-cardiac surgery. JAMA. 2007;297(22):2481-2488. doi:10.1001/jama.297.22.2481

11. Healthcare Bluebook. Complete blood count (CBC) with differential. Accessed March 28, 2024. https://www.healthcarebluebook.com/page_ProcedureDetails.aspx?id=214&dataset=lab

12. Douketis JD, Spyropoulos AC, Murad MH, et al. Perioperative management of antithrombotic therapy: an American College of Chest Physicians Clinical Practice Guideline. Chest. 2022;162(5):e207-e243. doi:10.1016/j.chest.2022.07.025

13. Randall JA, Wagner KT, Brody F. Perioperative transfusions in veterans following noncardiac procedures. J Laparoendosc Adv Surg Tech A. 2023;33(10):923-931. doi:10.1089/lap. 2023.0307

14. Tartter PI, Barron DM. Unnecessary blood transfusions in elective colorectal cancer surgery. Transfusion. 1985;25(2):113-115. doi:10.1046/j.1537-2995.1985.25285169199.x

15. Steiner CA, Karaca Z, Moore BJ, Imshaug MC, Pickens G. Surgeries in hospital-based ambulatory surgery and hospital inpatient settings, 2014. Healthcare Cost and Utilization Project statistical brief #223. May 2017. Revised July 2020. Agency for Healthcare Research and Quality. Accessed February 26, 2024. https://hcup-us.ahrq.gov/reports/statbriefs/sb223-Ambulatory-Inpatient-Surgeries-2014.pdf

16. US Department of Veterans Affairs, National Surgery Office. Quarterly report: Q3 of fiscal year 2017. VISN operative complexity summary [Source not verified].

References

1. Kohli N, Mallipeddi PK, Neff JM, Sze EH, Roat TW. Routine hematocrit after elective gynecologic surgery. Obstet Gynecol. 2000;95(6 Pt 1):847-850. doi:10.1016/s0029-7844(00)00796-1

2. Olus A, Orhan, U, Murat A, et al. Do asymptomatic patients require routine hemoglobin testing following uneventful, unplanned cesarean sections? Arch Gynecol Obstet. 2010;281(2):195-199. doi:10.1007/s00404-009-1093-1

3. Wu XD, Zhu ZL, Xiao P, Liu JC, Wang JW, Huang W. Are routine postoperative laboratory tests necessary after primary total hip arthroplasty? J Arthroplasty. 2020;35(10):2892-2898. doi:10.1016/j.arth.2020.04.097

4. Kumar A, Srivastava U. Role of routine laboratory investigations in preoperative evaluation. J Anesthesiol Clin Pharmacol. 2011;27(2):174-179. doi:10.4103/0970-9185.81824

5. Aghajanian A, Grimes DA. Routine prothrombin time determination before elective gynecologic operations. Obstet Gynecol. 1991;78(5 Pt 1):837-839.

6. Ransom SB, McNeeley SG, Malone JM Jr. A cost-effectiveness evaluation of preoperative type-and-screen testing for vaginal hysterectomy. Am J Obstet Gynecol. 1996;175(5):1201-1203. doi:10.1016/s0002-9378(96)70028-5

7. Ransom SB, McNeeley SG, Hosseini RB. Cost-effectiveness of routine blood type and screen testing before elective laparoscopy. Obstet Gynecol. 1995;86(3):346-348. doi:10.1016/0029-7844(95)00187-V

8. Committee on Standards and Practice Parameters, Apfelbaum JL, Connis RT, et al. Practice advisory for preanesthesia evaluation: an updated report by the American Society of Anesthesiologists Task Force on Preanesthesia Evaluation. Anesthesiology. 2012;116(3):522-538. doi:10.1097/ALN.0b013e31823c1067

9. Weil IA, Seicean S, Neuhauser D, Schiltz NK, Seicean A. Use and utility of hemostatic screening in adults undergoing elective, non-cardiac surgery. PLoS One. 2015;10(12):e0139139. doi:10.1371/journal.pone.0139139

10. Wu WC, Schifftner TL, Henderson WG, et al. Preoperative hematocrit levels and postoperative outcomes in older patients undergoing non-cardiac surgery. JAMA. 2007;297(22):2481-2488. doi:10.1001/jama.297.22.2481

11. Healthcare Bluebook. Complete blood count (CBC) with differential. Accessed March 28, 2024. https://www.healthcarebluebook.com/page_ProcedureDetails.aspx?id=214&dataset=lab

12. Douketis JD, Spyropoulos AC, Murad MH, et al. Perioperative management of antithrombotic therapy: an American College of Chest Physicians Clinical Practice Guideline. Chest. 2022;162(5):e207-e243. doi:10.1016/j.chest.2022.07.025

13. Randall JA, Wagner KT, Brody F. Perioperative transfusions in veterans following noncardiac procedures. J Laparoendosc Adv Surg Tech A. 2023;33(10):923-931. doi:10.1089/lap. 2023.0307

14. Tartter PI, Barron DM. Unnecessary blood transfusions in elective colorectal cancer surgery. Transfusion. 1985;25(2):113-115. doi:10.1046/j.1537-2995.1985.25285169199.x

15. Steiner CA, Karaca Z, Moore BJ, Imshaug MC, Pickens G. Surgeries in hospital-based ambulatory surgery and hospital inpatient settings, 2014. Healthcare Cost and Utilization Project statistical brief #223. May 2017. Revised July 2020. Agency for Healthcare Research and Quality. Accessed February 26, 2024. https://hcup-us.ahrq.gov/reports/statbriefs/sb223-Ambulatory-Inpatient-Surgeries-2014.pdf

16. US Department of Veterans Affairs, National Surgery Office. Quarterly report: Q3 of fiscal year 2017. VISN operative complexity summary [Source not verified].

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Are Children Born Through ART at Higher Risk for Cancer?

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Mon, 06/10/2024 - 15:35

The results of a large French study comparing the cancer risk in children conceived through assisted reproductive technology (ART) with that of naturally conceived children were published recently in JAMA Network Open. This study is one of the largest to date on this subject: It included 8,526,306 children born in France between 2010 and 2021, of whom 260,236 (3%) were conceived through ART, and followed them up to a median age of 6.7 years.

Motivations for the Study

ART (including artificial insemination, in vitro fertilization [IVF], or intracytoplasmic sperm injection [ICSI] with fresh or frozen embryo transfer) accounts for about 1 in 30 births in France. However, limited and heterogeneous data have suggested an increased risk for certain health disorders, including cancer, among children conceived through ART. Therefore, a large-scale evaluation of cancer risk in these children is important.

No Overall Increase

In all, 9256 children developed cancer, including 292 who were conceived through ART. Thus, this study did not show an increased risk for cancer (of all types combined) in children conceived through ART. Nevertheless, a slight increase in the risk for leukemia was observed in children conceived through IVF or ICSI. The investigators observed approximately one additional case for every 5000 newborns conceived through IVF or ICSI who reached age 10 years.

Epidemiological monitoring should be continued to better evaluate long-term risks and see whether the risk for leukemia is confirmed. If it is, then it will be useful to investigate the mechanisms related to ART techniques or the fertility disorders of parents that could lead to an increased risk for leukemia.

This story was translated from Univadis France, which is part of the Medscape Professional Network, using several editorial tools, including AI, as part of the process. Human editors reviewed this content before publication. A version of this article appeared on Medscape.com.

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The results of a large French study comparing the cancer risk in children conceived through assisted reproductive technology (ART) with that of naturally conceived children were published recently in JAMA Network Open. This study is one of the largest to date on this subject: It included 8,526,306 children born in France between 2010 and 2021, of whom 260,236 (3%) were conceived through ART, and followed them up to a median age of 6.7 years.

Motivations for the Study

ART (including artificial insemination, in vitro fertilization [IVF], or intracytoplasmic sperm injection [ICSI] with fresh or frozen embryo transfer) accounts for about 1 in 30 births in France. However, limited and heterogeneous data have suggested an increased risk for certain health disorders, including cancer, among children conceived through ART. Therefore, a large-scale evaluation of cancer risk in these children is important.

No Overall Increase

In all, 9256 children developed cancer, including 292 who were conceived through ART. Thus, this study did not show an increased risk for cancer (of all types combined) in children conceived through ART. Nevertheless, a slight increase in the risk for leukemia was observed in children conceived through IVF or ICSI. The investigators observed approximately one additional case for every 5000 newborns conceived through IVF or ICSI who reached age 10 years.

Epidemiological monitoring should be continued to better evaluate long-term risks and see whether the risk for leukemia is confirmed. If it is, then it will be useful to investigate the mechanisms related to ART techniques or the fertility disorders of parents that could lead to an increased risk for leukemia.

This story was translated from Univadis France, which is part of the Medscape Professional Network, using several editorial tools, including AI, as part of the process. Human editors reviewed this content before publication. A version of this article appeared on Medscape.com.

The results of a large French study comparing the cancer risk in children conceived through assisted reproductive technology (ART) with that of naturally conceived children were published recently in JAMA Network Open. This study is one of the largest to date on this subject: It included 8,526,306 children born in France between 2010 and 2021, of whom 260,236 (3%) were conceived through ART, and followed them up to a median age of 6.7 years.

Motivations for the Study

ART (including artificial insemination, in vitro fertilization [IVF], or intracytoplasmic sperm injection [ICSI] with fresh or frozen embryo transfer) accounts for about 1 in 30 births in France. However, limited and heterogeneous data have suggested an increased risk for certain health disorders, including cancer, among children conceived through ART. Therefore, a large-scale evaluation of cancer risk in these children is important.

No Overall Increase

In all, 9256 children developed cancer, including 292 who were conceived through ART. Thus, this study did not show an increased risk for cancer (of all types combined) in children conceived through ART. Nevertheless, a slight increase in the risk for leukemia was observed in children conceived through IVF or ICSI. The investigators observed approximately one additional case for every 5000 newborns conceived through IVF or ICSI who reached age 10 years.

Epidemiological monitoring should be continued to better evaluate long-term risks and see whether the risk for leukemia is confirmed. If it is, then it will be useful to investigate the mechanisms related to ART techniques or the fertility disorders of parents that could lead to an increased risk for leukemia.

This story was translated from Univadis France, which is part of the Medscape Professional Network, using several editorial tools, including AI, as part of the process. Human editors reviewed this content before publication. A version of this article appeared on Medscape.com.

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The Value of Early Education

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Tue, 06/04/2024 - 13:04

Early education is right up there with motherhood and apple pie as unarguable positive concepts. How could exposing young children to a school-like atmosphere not be a benefit, particularly in communities dominated by socioeconomic challenges? While there are some questions about the value of playing Mozart to infants, early education in the traditional sense continues to be viewed as a key strategy for providing young children a preschool foundation on which a successful academic career can be built. Several oft-cited randomized controlled trials have fueled both private and public interest and funding.

However, a recent commentary published in Science suggests that all programs are “not unequivocally positive and much more research is needed.” “Worrisome results in Tennessee,” “Success in Boston,” and “Largely null results for Headstart” are just a few of the article’s section titles and convey a sense of the inconsistency the investigators found as they reviewed early education systems around the country.

Dr. William G. Wilkoff practiced primary care pediatrics in Brunswick, Maine, for nearly 40 years.
Dr. William G. Wilkoff

While there may be some politicians who may attempt to use the results of this investigation as a reason to cancel public funding of underperforming early education programs, the authors avoid this baby-and-the-bathwater conclusion. Instead, they urge more rigorous research “to understand how effective programs can be designed and implemented.”

The kind of re-thinking and brainstorming these investigators suggest takes time. While we’re waiting for this process to gain traction, this might be a good time to consider some of the benefits of early education that we don’t usually consider when our focus is on academic metrics.

A recent paper in Children’s Health Care by investigators at the Boston University Medical Center and School of Medicine considered the diet of children attending preschool. Looking at the dietary records of more than 300 children attending 30 childcare centers, the researchers found that the children’s diets before arrival at daycare was less healthy than while they were in daycare. “The hour after pickup appeared to be the least healthful” of any of the time periods surveyed. Of course, we will all conjure up images of what this chaotic post-daycare pickup may look like and cut the harried parents and grandparents some slack when it comes to nutritional choices. However, the bottom line is that for the group of children surveyed being in preschool or daycare protected them from a less healthy diet they were being provided outside of school hours.

Our recent experience with pandemic-related school closures provides more evidence that being in school was superior to any remote experience academically. School-age children and adolescents gained weight when school closures were the norm. Play patterns for children shifted from outdoor play to indoor play — often dominated by more sedentary video games. Both fatal and non-fatal gun-related injuries surged during the pandemic and, by far, the majority of these occur in the home and not at school.

Stepping back to look at this broader picture that includes diet, physical activity, and safety — not to mention the benefits of socialization — leads one to arrive at the unfortunate conclusion that for many children in this country, being at home is considerably less healthy than being in school. Of course there will be those who point to the belief that schools are petri dishes putting children at greater risk for respiratory infections. On the other hand, we must accept that schools haven’t proved to be a major factor in the spread of COVID that many had feared.

The authors of the study in Science are certainly correct in recommending a more thorough investigation into the academic benefits of preschool education. However, we must keep in mind that preschool offers an environment that can be a positive influence on young children.

Dr. Wilkoff practiced primary care pediatrics in Brunswick, Maine, for nearly 40 years. He has authored several books on behavioral pediatrics, including “How to Say No to Your Toddler.” Other than a Littman stethoscope he accepted as a first-year medical student in 1966, Dr. Wilkoff reports having nothing to disclose. Email him at [email protected].

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Early education is right up there with motherhood and apple pie as unarguable positive concepts. How could exposing young children to a school-like atmosphere not be a benefit, particularly in communities dominated by socioeconomic challenges? While there are some questions about the value of playing Mozart to infants, early education in the traditional sense continues to be viewed as a key strategy for providing young children a preschool foundation on which a successful academic career can be built. Several oft-cited randomized controlled trials have fueled both private and public interest and funding.

However, a recent commentary published in Science suggests that all programs are “not unequivocally positive and much more research is needed.” “Worrisome results in Tennessee,” “Success in Boston,” and “Largely null results for Headstart” are just a few of the article’s section titles and convey a sense of the inconsistency the investigators found as they reviewed early education systems around the country.

Dr. William G. Wilkoff practiced primary care pediatrics in Brunswick, Maine, for nearly 40 years.
Dr. William G. Wilkoff

While there may be some politicians who may attempt to use the results of this investigation as a reason to cancel public funding of underperforming early education programs, the authors avoid this baby-and-the-bathwater conclusion. Instead, they urge more rigorous research “to understand how effective programs can be designed and implemented.”

The kind of re-thinking and brainstorming these investigators suggest takes time. While we’re waiting for this process to gain traction, this might be a good time to consider some of the benefits of early education that we don’t usually consider when our focus is on academic metrics.

A recent paper in Children’s Health Care by investigators at the Boston University Medical Center and School of Medicine considered the diet of children attending preschool. Looking at the dietary records of more than 300 children attending 30 childcare centers, the researchers found that the children’s diets before arrival at daycare was less healthy than while they were in daycare. “The hour after pickup appeared to be the least healthful” of any of the time periods surveyed. Of course, we will all conjure up images of what this chaotic post-daycare pickup may look like and cut the harried parents and grandparents some slack when it comes to nutritional choices. However, the bottom line is that for the group of children surveyed being in preschool or daycare protected them from a less healthy diet they were being provided outside of school hours.

Our recent experience with pandemic-related school closures provides more evidence that being in school was superior to any remote experience academically. School-age children and adolescents gained weight when school closures were the norm. Play patterns for children shifted from outdoor play to indoor play — often dominated by more sedentary video games. Both fatal and non-fatal gun-related injuries surged during the pandemic and, by far, the majority of these occur in the home and not at school.

Stepping back to look at this broader picture that includes diet, physical activity, and safety — not to mention the benefits of socialization — leads one to arrive at the unfortunate conclusion that for many children in this country, being at home is considerably less healthy than being in school. Of course there will be those who point to the belief that schools are petri dishes putting children at greater risk for respiratory infections. On the other hand, we must accept that schools haven’t proved to be a major factor in the spread of COVID that many had feared.

The authors of the study in Science are certainly correct in recommending a more thorough investigation into the academic benefits of preschool education. However, we must keep in mind that preschool offers an environment that can be a positive influence on young children.

Dr. Wilkoff practiced primary care pediatrics in Brunswick, Maine, for nearly 40 years. He has authored several books on behavioral pediatrics, including “How to Say No to Your Toddler.” Other than a Littman stethoscope he accepted as a first-year medical student in 1966, Dr. Wilkoff reports having nothing to disclose. Email him at [email protected].

Early education is right up there with motherhood and apple pie as unarguable positive concepts. How could exposing young children to a school-like atmosphere not be a benefit, particularly in communities dominated by socioeconomic challenges? While there are some questions about the value of playing Mozart to infants, early education in the traditional sense continues to be viewed as a key strategy for providing young children a preschool foundation on which a successful academic career can be built. Several oft-cited randomized controlled trials have fueled both private and public interest and funding.

However, a recent commentary published in Science suggests that all programs are “not unequivocally positive and much more research is needed.” “Worrisome results in Tennessee,” “Success in Boston,” and “Largely null results for Headstart” are just a few of the article’s section titles and convey a sense of the inconsistency the investigators found as they reviewed early education systems around the country.

Dr. William G. Wilkoff practiced primary care pediatrics in Brunswick, Maine, for nearly 40 years.
Dr. William G. Wilkoff

While there may be some politicians who may attempt to use the results of this investigation as a reason to cancel public funding of underperforming early education programs, the authors avoid this baby-and-the-bathwater conclusion. Instead, they urge more rigorous research “to understand how effective programs can be designed and implemented.”

The kind of re-thinking and brainstorming these investigators suggest takes time. While we’re waiting for this process to gain traction, this might be a good time to consider some of the benefits of early education that we don’t usually consider when our focus is on academic metrics.

A recent paper in Children’s Health Care by investigators at the Boston University Medical Center and School of Medicine considered the diet of children attending preschool. Looking at the dietary records of more than 300 children attending 30 childcare centers, the researchers found that the children’s diets before arrival at daycare was less healthy than while they were in daycare. “The hour after pickup appeared to be the least healthful” of any of the time periods surveyed. Of course, we will all conjure up images of what this chaotic post-daycare pickup may look like and cut the harried parents and grandparents some slack when it comes to nutritional choices. However, the bottom line is that for the group of children surveyed being in preschool or daycare protected them from a less healthy diet they were being provided outside of school hours.

Our recent experience with pandemic-related school closures provides more evidence that being in school was superior to any remote experience academically. School-age children and adolescents gained weight when school closures were the norm. Play patterns for children shifted from outdoor play to indoor play — often dominated by more sedentary video games. Both fatal and non-fatal gun-related injuries surged during the pandemic and, by far, the majority of these occur in the home and not at school.

Stepping back to look at this broader picture that includes diet, physical activity, and safety — not to mention the benefits of socialization — leads one to arrive at the unfortunate conclusion that for many children in this country, being at home is considerably less healthy than being in school. Of course there will be those who point to the belief that schools are petri dishes putting children at greater risk for respiratory infections. On the other hand, we must accept that schools haven’t proved to be a major factor in the spread of COVID that many had feared.

The authors of the study in Science are certainly correct in recommending a more thorough investigation into the academic benefits of preschool education. However, we must keep in mind that preschool offers an environment that can be a positive influence on young children.

Dr. Wilkoff practiced primary care pediatrics in Brunswick, Maine, for nearly 40 years. He has authored several books on behavioral pediatrics, including “How to Say No to Your Toddler.” Other than a Littman stethoscope he accepted as a first-year medical student in 1966, Dr. Wilkoff reports having nothing to disclose. Email him at [email protected].

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